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SLMF™ METHODOLOGY · 7 Engineering Levels

From Preparedness to Business Continuity — the Full Lifecycle

Each level below has its own engineering principles, a decision gate, concrete deliverables, and now an Action Center linking directly to the SRT resource that helps you act at that stage. Expand any level for the full detail.

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1
Preparedness
Risk awareness, critical asset identification, emergency planning, inspection readiness
Purpose
Build organizational readiness before an incident occurs.
Typical Users
Plant Manager, Factory Owner, Maintenance Engineer
Objectives
Identify critical assets, establish emergency contacts, confirm inspection readiness.
Key Engineering Actions
Critical asset inventory, isolation-point mapping, spare-parts/lead-time review.
Exit Criteria
The client can name their top critical assets and knows who to call in an emergency.
Engineering Principles

A client who knows which assets are actually critical (production-blocking, safety-relevant, or long-lead-time to replace) before an incident can make faster, better decisions during one. Preparedness is an engineering exercise, not just an administrative checklist.

Decision Gate
Has the client's critical-asset inventory and emergency contact/isolation plan actually been reviewed, or does it only exist as an assumption?
Deliverables at This Stage
  • Critical asset register (conceptual)
  • Site emergency-isolation reference points
  • Inspection-readiness baseline
Expected Outcome

When an incident does happen, the client already knows what to isolate, who to call, and which assets matter most — removing decision time from Level 2.

Action Center — Related SRT Resources
Emergency Contact Reference
AVAILABLE
Critical Asset Identification Guide
PLANNED
Site Readiness Review
PLANNED
2
Emergency Response
Immediate engineering actions — safety, energy isolation, machine preservation, damage stabilization
Purpose
Take immediate safety and stabilization action in the first hours after an incident.
Typical Users
Maintenance Engineer, Plant Manager, Factory Owner (whoever is first on-site)
Objectives
Ensure safety, isolate energy sources, prevent further damage.
Key Engineering Actions
De-energize/isolate, evacuate if needed, photograph as-found condition.
Exit Criteria
The site/asset is confirmed safe and stable.
Engineering Principles

The first engineering priority is always safety (isolation before inspection); the second is preventing damage from worsening before it can be properly assessed. This level does not attempt a technical determination — it stabilizes the situation so Levels 3-4 can be done properly.

Decision Gate
Is the site/asset safe and stable enough that further engineering work can begin without additional risk?
Deliverables at This Stage
  • Isolation confirmation
  • As-found photographic record
  • Initial incident timeline
Expected Outcome

No secondary injury, and no secondary damage caused by delay or improper handling in the first hours.

Action Center — Related SRT Resources
Emergency Checklist
AVAILABLE
Emergency Isolation Guide
PLANNED
Asset Preservation Guide
PLANNED
Request SRT Assistance
AVAILABLE
3
Loss Mitigation
Preventing secondary damage — corrosion mitigation, drying strategy, temporary protection, asset segregation, documentation
Purpose
Prevent secondary damage after initial stabilization.
Typical Users
Maintenance Engineer, Plant Manager
Objectives
Stop ongoing deterioration, protect unaffected assets, document condition.
Key Engineering Actions
Drying, corrosion inhibition, segregation, continued documentation.
Exit Criteria
No further active deterioration; the asset is ready for formal technical assessment.
Engineering Principles

This is the level most responsible for actually reducing Total Cost of Loss — a flood-affected motor left wet for days sustains more damage than one dried within hours, independent of the original incident severity. Segregating affected from unaffected assets prevents contamination/cross-damage.

Decision Gate
Has active secondary-damage risk (ongoing corrosion, ongoing contamination spread) been addressed, or is the asset still deteriorating while awaiting assessment?
Deliverables at This Stage
  • Drying/protection plan executed
  • Segregation of affected assets
  • Continued documentation feeding into Level 4
Expected Outcome

The asset's condition at technical assessment reflects the original incident, not additional damage that occurred while waiting.

Action Center — Related SRT Resources
Flood Preservation Guide
PLANNED
Drying Strategy
PLANNED
Corrosion Mitigation
AVAILABLE
Evidence Collection Guide
PLANNED
4
Technical Assessment
Engineering inspection, testing, applicable standards, failure analysis, evidence collection
Purpose
Establish a defensible technical condition through inspection, testing, and standards.
Typical Users
Maintenance Engineer, Project Engineer, Loss Adjuster
Objectives
Measure, test, identify applicable standards, collect evidence.
Key Engineering Actions
Insulation resistance testing, vibration measurement, standards cross-check.
Exit Criteria
Enough measured evidence exists to support an Engineering Decision.
Engineering Principles

The same Decision Framework already governing the AI Assistant's own reasoning applies here in the physical world — Fact before Analysis, measurement before conclusion, the applicable Standard consulted before a judgement is rendered.

Decision Gate
Is there enough measured, standards-referenced evidence to support an Engineering Decision, or does assessment need to continue?
Deliverables at This Stage
  • Completed inspection/measurement records
  • Applicable Standards identified
  • A defensible technical condition report
Expected Outcome

A technical picture specific enough that Level 5's decision is evidence-driven, not assumption-driven.

5
Engineering Decision
Repair, retrofit, remanufacture, or replacement — weighed against business impact and risk
Purpose
Decide repair, retrofit, remanufacture, or replace — technically and commercially justified.
Typical Users
Project Engineer, Plant Manager, Loss Adjuster, Insurance Broker
Objectives
Weigh technical feasibility against cost and business impact.
Key Engineering Actions
Apply BURCE costing, compare options, document rationale.
Exit Criteria
The decision has both technical (Level 4) and cost (BURCE) justification.
Engineering Principles

Technical and economic feasibility are both considered; replacement is never the default. This is also where BURCE's cost-estimation methodology is applied to make the decision commercially, not just technically, defensible.

Decision Gate
Does the chosen path have both technical justification (Level 4) and cost justification (BURCE) before execution begins?
Deliverables at This Stage
  • A documented recovery decision with technical and cost rationale
  • Insurance-claim-ready supporting evidence
Expected Outcome

A decision that survives scrutiny — from the client, an insurer, or an auditor — because it's traceable back to Level 4's evidence.

6
Recovery Engineering
Execution planning, resource planning, quality assurance, commissioning
Purpose
Execute the recovery with quality assurance and validated commissioning.
Typical Users
Maintenance Engineer, Project Engineer
Objectives
Plan resources, execute to spec, validate before handover.
Key Engineering Actions
Execution per SRT-ARM, staged commissioning tests, documentation handover.
Exit Criteria
The asset is validated to rated performance, not just "it turns on."
Engineering Principles

A recovery plan is only as good as its validation — staged, production-representative testing confirms the recovery actually achieved what Level 5 decided, not just that the asset runs.

Decision Gate
Has the recovered asset been validated to a standard equivalent to its original rated performance, or only to "it turns on"?
Deliverables at This Stage
  • Execution/resource plan
  • QA records
  • Commissioning test results
  • Full documentation handover
Expected Outcome

A recovered asset with the evidence trail to prove it, not just a running machine.

Action Center — Related SRT Resources
7
Business Continuity
Production prioritization, temporary production, recovery sequencing, lessons learned
Purpose
Restore business operations and capture lessons for next time.
Typical Users
Plant Manager, Factory Owner
Objectives
Sequence multi-asset recovery by business impact; close the loop back to Preparedness.
Key Engineering Actions
Production prioritization, lessons-learned review.
Exit Criteria
Production is restored, and at least one lesson is identified for Level 1.
Engineering Principles

When multiple assets are affected, sequencing recovery by production/business impact (not simply by damage severity or convenience) minimizes the client's actual downtime cost. Lessons learned here feed back into Level 1's preparedness for next time.

Decision Gate
Has production been restored to an acceptable state, and has the incident generated any lesson that should update Level 1 preparedness?
Deliverables at This Stage
  • Recovery sequencing plan (multi-asset incidents)
  • Lessons-learned note
Expected Outcome

The business is operating again, and is measurably better prepared for a similar incident than it was before this one.

Action Center — Related SRT Resources
How We Work
AVAILABLE
Case Studies
AVAILABLE
Business Continuity Planning Guide
PLANNED
How These Levels Relate to SRT-ARM™ and BURCE™
SLMF is the full incident lifecycle; SRT-ARM™ is the detailed project-execution methodology running inside Levels 4-6; BURCE™ is the cost-estimation methodology applied specifically at Level 5. See the SLMF Overview for the complete relationship mapping, or the Resource Map for how every level connects to every part of the Engineering Knowledge System.

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