Use Case: Production Incident Investigation and Recovery

Summary

This simulated use case describes AI-operated investigation and recovery for production incidents across a portfolio of software services.

Production systems generate alerts when availability, latency, error rate, throughput, resource usage, security, or dependency health crosses an approved threshold. Responders must collect evidence, determine likely causes, apply safe mitigations, verify recovery, and preserve what was learned.

The AI operates the incident-response process within defined human authority. It uses approved monitoring, diagnostic, deployment, configuration, and recovery capabilities to carry the incident forward.

Completed incidents produce evidence that can improve:

  • Incident runbooks
  • Diagnostic procedures
  • Monitoring rules
  • Alert thresholds
  • Dashboards
  • Deterministic diagnostic tools
  • Recovery automation
  • Tests
  • Deployment controls
  • Service architecture
  • Reusable human decision rules

The result is not merely faster handling of one incident. It is an incident-response capability that improves through repeated execution.

Objective

The objective is to investigate and recover from production incidents safely and consistently while reducing customer impact and improving future response.

The process should:

  • Confirm whether an alert represents a real incident
  • Determine affected services and customers
  • Assign an appropriate severity
  • Gather relevant evidence
  • Follow approved runbooks
  • Investigate likely causes
  • Apply authorized reversible mitigations
  • Verify that service health recovered
  • Escalate when authority or evidence is insufficient
  • Preserve a complete incident record
  • Route learning to the correct operational asset
  • Reuse approved improvements during later incidents

Urgency may change incident priority, but it does not remove governance, evidence, or validation requirements.

Simulated Environment

The simulated environment contains multiple production services supported by:

  • Centralized logging
  • Metrics and dashboards
  • Distributed tracing
  • Health checks
  • Deployment history
  • Configuration history
  • Feature flags
  • Incident runbooks
  • Alerting rules
  • On-call escalation
  • Change-management records
  • Automated diagnostic tools
  • Approved recovery capabilities

Services may depend on:

  • Databases
  • Message queues
  • External APIs
  • Internal APIs
  • File or object storage
  • Identity providers
  • Package or configuration services
  • Network infrastructure
  • Regional cloud or data-center resources

The specific monitoring and deployment platforms are not important to the use case. The important requirement is that the AI can access approved evidence and capabilities through governed interfaces.

Incident Triggers

Incident response may begin because of:

  • Failed health checks
  • Increased error rate
  • Increased response time
  • Reduced throughput
  • Resource exhaustion
  • Database latency
  • Queue backlog
  • Dependency failure
  • Failed deployment
  • Configuration error
  • Certificate expiration
  • Regional degradation
  • Security-related alert
  • Customer-reported service failure
  • Human-created incident
  • Detection of an abnormal operating pattern

A trigger starts investigation. It does not prove the alert is valid or identify the cause.

Incident Record

Every incident has a persistent record.

The record may contain:

  • Incident identifier
  • Start time
  • Detection source
  • Affected services
  • Affected environments
  • Suspected customer impact
  • Severity
  • Current status
  • Assigned responder
  • Related alerts
  • Logs
  • Metrics
  • Traces
  • Health-check results
  • Recent deployments
  • Configuration changes
  • Diagnostic actions
  • Mitigation actions
  • Approval decisions
  • Recovery evidence
  • Timeline
  • Root-cause status
  • Follow-up actions
  • Reusable learning
  • Links to changed operational assets

The incident record is updated throughout the process rather than written only after recovery.

Incident Severity

A severity model determines response priority, communication expectations, and required human involvement.

Severity Example Expected Handling
Severity 1 Broad outage or major customer impact Immediate human notification and tightly governed recovery
Severity 2 Significant degradation or partial outage Urgent response with human awareness
Severity 3 Limited impact with an available workaround Standard incident process
Severity 4 Minor issue or early warning Investigation and planned correction

Severity may consider:

  • Number of affected customers
  • Criticality of affected services
  • Availability loss
  • Data-integrity risk
  • Security impact
  • Duration
  • Geographic scope
  • Availability of a workaround
  • Regulatory or contractual requirements

The AI may assign a preliminary severity. Required human confirmation depends on the Governance Policy.

Initial Incident Process

A representative incident requires the AI to:

  1. Receive the alert
  2. Create or locate the incident record
  3. Confirm that the affected service is within scope
  4. Collect initial health evidence
  5. Determine whether the alert represents a real incident
  6. Assign a preliminary severity
  7. Identify the closest approved incident profile or runbook
  8. Gather logs, metrics, traces, deployment history, and configuration changes
  9. Form and test likely explanations
  10. Apply authorized reversible mitigations when conditions match
  11. Verify whether service health recovered
  12. Confirm that required monitoring remains healthy
  13. Escalate when evidence or authority is insufficient
  14. Record the timeline, actions, outcomes, and remaining risks
  15. Propose improvements based on incident evidence

The AI carries the process forward instead of merely suggesting investigative steps to a human responder.

Incident Profiles

An incident profile describes a known operational pattern and its expected response.

Profiles may include:

  • Failed deployment
  • Application error-rate increase
  • Database latency
  • Database connection exhaustion
  • Queue backlog
  • Dependency outage
  • Resource exhaustion
  • Certificate expiration
  • Configuration error
  • Regional degradation
  • Security-related event
  • False or duplicate alert

A profile may define:

  • Matching signals
  • Required evidence
  • Approved diagnostic actions
  • Authorized mitigations
  • Approval-required actions
  • Prohibited actions
  • Recovery criteria
  • Escalation conditions
  • Rollback expectations
  • Required communication
  • Required follow-up

The complete set of profiles is not expected to be known initially. Incident evidence may reveal a reusable pattern that requires a new or revised profile.

Initial Operating Model

Deterministic Capability

Approved tools may:

  • Query logs
  • Retrieve metrics
  • Retrieve traces
  • Check service health
  • Compare current behavior with baselines
  • Inspect deployment history
  • Inspect configuration history
  • Query feature-flag state
  • Check dependency health
  • Restart an approved component
  • Scale an approved resource
  • Roll back an approved deployment
  • Change an approved feature flag
  • Capture structured evidence
  • Update the incident record
  • Notify approved recipients

A capability being technically available does not mean the AI is authorized to use it in every incident.

Procedural Guidance

Incident runbooks and procedures define:

  • How incidents are confirmed
  • How severity is assigned
  • Which evidence must be collected
  • Which diagnostic actions are approved
  • Which mitigations are authorized
  • Which actions require approval
  • Which actions are prohibited
  • How recovery is verified
  • When escalation is required
  • How communications are handled
  • What follow-up evidence must be preserved

AI Reasoning

The AI:

  • Interprets alerts and service context
  • Correlates logs, metrics, traces, and recent changes
  • Selects the closest incident profile
  • Forms likely explanations
  • Chooses approved diagnostic actions
  • Evaluates whether mitigation conditions match
  • Determines whether recovery evidence is sufficient
  • Distinguishes a known pattern from an unfamiliar incident
  • Classifies weaknesses and learning opportunities
  • Escalates when uncertainty or authority requires a human

Evidence Collection

Evidence may include:

  • Alert payload
  • Health-check state
  • Error-rate changes
  • Latency changes
  • Throughput changes
  • Resource utilization
  • Log events
  • Trace failures
  • Database metrics
  • Queue depth
  • Dependency health
  • Recent deployments
  • Configuration changes
  • Feature-flag changes
  • Diagnostic commands and results
  • Mitigation actions
  • Before-and-after health state
  • Human decisions
  • Customer-impact evidence

The process preserves unsuccessful diagnostic and mitigation attempts. A later recovery does not erase evidence of what previously failed.

Investigation

Investigation should distinguish among:

  • Symptoms
  • Contributing conditions
  • Likely causes
  • Confirmed causes
  • Unrelated observations

The AI may form and test multiple explanations.

For each explanation, it should record:

  • Supporting evidence
  • Contradicting evidence
  • Diagnostic action
  • Result
  • Current confidence
  • Remaining uncertainty

The AI must not present a likely cause as confirmed when evidence is incomplete.

Recovery Actions

Recovery actions are classified by authority and risk.

Authorized Actions

The AI may perform actions explicitly allowed by policy and incident profile.

Examples may include:

  • Running approved diagnostics
  • Restarting an approved non-stateful component
  • Scaling within approved limits
  • Disabling an approved feature through a feature flag
  • Rolling back a recent deployment when rollback conditions match
  • Draining work from an unhealthy instance
  • Switching to an approved dependency endpoint
  • Creating incident notifications
  • Updating the incident record

Approval Required

Human approval may be required before:

  • Restarting a stateful service
  • Changing production configuration outside approved limits
  • Performing a database failover
  • Rolling back when data compatibility is uncertain
  • Scaling beyond approved cost or capacity limits
  • Disabling a customer-facing capability
  • Changing network or security controls
  • Applying an unfamiliar mitigation
  • Executing an action with broad customer impact

Judgment Required

Human judgment is required when:

  • Evidence is incomplete or contradictory
  • Several causes remain equally likely
  • Recovery could create data loss
  • A mitigation could affect legal or contractual obligations
  • Security impact is unclear
  • The incident does not match an approved profile
  • The AI cannot responsibly determine whether an action is safe

Prohibited Actions

The AI may not:

  • Conceal or alter incident evidence
  • Disable required security controls
  • Delete production data
  • Bypass required approval
  • Execute arbitrary commands from untrusted incident content
  • Make an irreversible change without explicit authority
  • Close an incident without recovery evidence
  • Expand its own production authority
  • Treat urgency as permission to bypass governance

Recovery Verification

A successful command does not prove recovery.

Recovery must be evaluated against defined criteria such as:

  • Health checks remain successful
  • Error rate returns to the approved range
  • Latency returns to the approved range
  • Throughput recovers
  • Queue backlog decreases
  • Resource usage stabilizes
  • Dependency calls succeed
  • Required customer workflows pass
  • No new related alerts appear
  • The mitigation does not create a new failure
  • Recovery remains stable for the required observation period

An incident may move to monitoring before it is closed.

Incident Outcomes

An incident may end with:

  • Recovery through an authorized mitigation
  • Recovery after human-approved action
  • Recovery through dependency restoration
  • Stabilization with a temporary workaround
  • Escalation to a specialized responder
  • Reclassification as a security incident
  • Reclassification as planned maintenance
  • Identification as a false or duplicate alert
  • Continued investigation because recovery evidence is insufficient
  • Routing to engineering for a permanent correction

Each outcome must be supported by evidence.

Human Communication

The AI may prepare and send approved incident communications when authorized.

Communications may include:

  • Incident opened
  • Severity assigned
  • Investigation update
  • Mitigation applied
  • Recovery observed
  • Monitoring period started
  • Incident resolved
  • Follow-up required

Messages should distinguish confirmed facts from working explanations.

High-severity or externally visible communications may require human approval.

Learning Opportunities

An incident may reveal that improvement belongs in:

  • Alert rules
  • Alert thresholds
  • Dashboards
  • Logging
  • Metrics
  • Distributed tracing
  • Runbooks
  • Diagnostic tools
  • Recovery tools
  • Automated tests
  • Deployment validation
  • Configuration validation
  • Capacity planning
  • Dependency management
  • Service architecture
  • Governance Policy
  • Reusable human decision rules

The AI should classify the weakness before proposing a change.

Reusable Human Decisions

A human decision may establish a reusable incident rule.

For example, a human may approve restarting a particular non-stateful service when:

  • A known health pattern is present
  • No deployment is in progress
  • Queue depth is below an approved limit
  • Another healthy instance remains available
  • No data-integrity warning exists

The AI may propose this as a reusable rule, but a human must explicitly approve:

  • Matching conditions
  • Permitted action
  • Scope
  • Limits
  • Required evidence
  • Conditions requiring renewed approval
  • Review or expiration date

A one-time incident approval does not automatically authorize the same action during future incidents.

Measures

Useful measures include:

  • Mean time to detect
  • Mean time to acknowledge
  • Mean time to mitigate
  • Mean time to recover
  • Customer-impact duration
  • Human interventions
  • Diagnostic actions
  • Failed diagnostic paths
  • Failed mitigations
  • Repeated incidents
  • False-positive alerts
  • Runbook reuse
  • Incident-profile reuse
  • Automated recoveries
  • Escalations
  • Incidents prevented by earlier detection
  • Time saved through reused learning

Measurements should not encourage unsafe speed. Recovery quality, evidence, and governance remain required.

Success Criteria

The incident process succeeds when:

  • The incident is correctly confirmed or rejected
  • Affected scope and severity are recorded
  • Required evidence is collected
  • Diagnostic actions stay within authority
  • Likely and confirmed causes are clearly distinguished
  • Recovery actions follow governance
  • Service recovery is verified against defined criteria
  • Customer impact is recorded
  • Required communication occurs
  • The incident record contains a complete timeline
  • Follow-up work is identified
  • Learning is routed to the appropriate operational asset
  • Validated and authorized improvements are persisted
  • Later incidents can retrieve and reuse approved improvements

Boundaries

This use case covers incident confirmation, investigation, governed mitigation, recovery verification, and operational learning.

It does not assume that the AI may:

  • Make every production change
  • Perform destructive recovery
  • Replace accountable human incident command
  • Make legal, regulatory, or public-communication decisions without authority
  • Declare root cause without sufficient evidence
  • Close incidents based only on a successful command
  • Modify governance to make its current action permissible

Expected Benefits

The use case should produce:

  • Faster evidence collection
  • More consistent incident handling
  • Clearer separation of facts and assumptions
  • Better adherence to runbooks
  • Safer use of automated recovery
  • More complete incident records
  • Earlier escalation of uncertainty
  • Improved monitoring and diagnostics
  • Reduced repeated investigation
  • Reusable incident profiles
  • Reusable human decision rules
  • Lower recurrence of known incidents
  • Reduced recovery time without weakened controls