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This page explains how the Durability Score is built — the components, the evidence behind each one, and the named sources. For who this work fits and what a career path through it looks like, see the Deep Read. For your personalized match, take the free quiz.
Where the 80 comes from.

Three components - Automation Resistance, Structural Moat, and Demand - add up to 80.

FJP Durability Score
80/100
Automation Resistance
34/40

Automation Resistance is high because connected-service tools help diagnosis, dispatch, and maintenance planning, but physical installation, callbacks, modernization, testing, lockout steps, and safe return-to-service remain mechanic work. That matters for training choice, field risk, and automation exposure.

Sub-components
Substitution Resistance
29/30

Observed AI exposure is 0%, and modeled median job-loss risk is 0%. That fits elevator work because installation, repair, modernization, testing, callbacks, access, lockout steps, and safety checks all happen on real equipment in real buildings.

Sources feeding this sub-component
Anthropic labor-market impacts → Reports 0% observed AI exposure for elevator and escalator installers and repairers.
Tufts American AI Jobs Risk Index → Elevator and Escalator Installers and Repairers show a 35.6 exposure score and 0% job-loss output in the median and fast scenarios.
Bureau of Labor Statistics Occupational Outlook Handbook - Elevator Installers and Repairers → Describes installation, maintenance, repair, and testing work on elevators, escalators, and moving walkways.
Augmentation Leverage
5/10

Connected-service platforms, controller diagnostics, service histories, and predictive maintenance can reduce blind troubleshooting and improve dispatch. The mechanic still has to verify faults, access equipment, test safety circuits, adjust components, and complete work that carries code and public-safety risk.

Sources feeding this sub-component
Otis ONE → Shows connected elevator monitoring and predictive-service features from a major elevator manufacturer.
KONE 24/7 Connected Services → Shows predictive maintenance and connected-service tools used in elevator service work.
Structural Moat
29/35

Structural Moat is unusually strong because apprenticeship, licensing in many markets, safety code, inspections, heavy parts, electricity, heights, confined spaces, and public-safety accountability all stack together. That matters for licensing, training depth, and seat protection.

Sub-components
Physical & Environmental
8/10

The physical barrier comes from shafts, pits, machine rooms, roofs, construction sites, service calls, heavy parts, climbing, heights, tight spaces, moving equipment, and lockout steps. The work is not constant outdoor labor, but it is physically and safely demanding.

Sources feeding this sub-component
Bureau of Labor Statistics Occupational Requirements Survey 2025 → Detailed federal physical-requirements fields for this occupation were unavailable, so exact physical percentages remain a measurement gap.
Regulatory Moat
9/12

Elevator work is shaped by national safety code, state and local mechanic licensing, inspection rules, and continuing-education requirements in many places. The barrier is high, with the main qualifier that mechanic and inspector rules vary by state and city.

Sources feeding this sub-component
ASME A17.1 / CSA B44 Safety Code for Elevators and Escalators → Shows the core safety code governing elevator and escalator design, installation, inspection, and maintenance.
CareerOneStop / DOL licensed occupations data → Shows state and local elevator-mechanic licensing requirements.
Archbridge State Occupational Licensing Index 2025 → Compares licensing burden across states and occupations.
Robotics Resistance
8/8

A robot may inspect or move material in narrow cases, but normal installation, modernization, callback diagnosis, safety testing, and occupied-building service require access, judgment, code compliance, and hands-on adjustment. Current robotics evidence does not show a broad commercial path to replace mechanics.

Sources feeding this sub-component
IFR World Robotics 2025 and papers → Current evidence does not show broad elevator-mechanic replacement by robots.
Credential Depth
4/5

The typical route is high school plus a multi-year apprenticeship, with classroom and field learning before journey-level work. Licensing and apprenticeship access vary by market, but the training ladder is deeper than most quick-entry trades.

Sources feeding this sub-component
Bureau of Labor Statistics Occupational Outlook Handbook - Elevator Installers and Repairers → Lists high school or equivalent and apprenticeship as the typical entry route.
National Elevator Industry Educational Program → Shows the industry apprenticeship education pathway.
O*NET Online - Elevator and Escalator Installers and Repairers → Places elevator mechanics in Job Zone 3, a long-preparation category.
Demand
17/25

Demand comes from new construction, modernization, accessibility work, code updates, service routes, and long-life maintenance, but the occupation is small enough that local openings can still be scarce. That matters for openings, geography, timing, and local search.

Sub-components
Volume
6/10

Federal projections show about 24,200 jobs, 5.0% growth, and about 2,000 annual openings. Openings run about 8.3% of the workforce, but the workforce is small, so local seats can be scarce.

Sources feeding this sub-component
Bureau of Labor Statistics Employment Projections → 24.2K jobs in 2024, 25.4K in 2034, 5.0% growth, and 2.0K annual openings.
Source Quality
6/8

Demand mixes new construction, modernization, accessibility upgrades, urban buildings, service routes, and long-life maintenance. That is a real base, but replacement and maintenance needs share the picture with construction-cycle exposure.

Sources feeding this sub-component
Resilience
5/7

Elevators and escalators stay in service for decades and need code-compliant maintenance, callbacks, and modernization. New construction and commercial real-estate cycles still affect installation hiring, so the demand floor is stronger than the expansion cycle.

Sources feeding this sub-component
ASME elevator and escalator safety codes → Safety-code requirements support recurring maintenance and inspection work.
What would move the score
Scenario 1
Modernization work accelerates across older buildings.

Modernization, accessibility retrofit, and controller-replacement work growing enough to push the next federal projection above roughly 7% growth would strengthen demand. The trigger is sustained service and modernization hiring, not one strong construction cycle. That would matter because service and modernization are less cyclical than installs.

Direction
Up, modest
Components affected
Demand
Scenario 2
Licensing becomes less consistent.

Multiple large states or cities loosening mechanic licensing, inspection, or continuing-education requirements would weaken the moat. The threshold is visible weakening in major markets, not a paperwork change in one small jurisdiction. The concern is weaker worker qualification in places with meaningful elevator markets.

Direction
Down, modest
Components affected
Structural Moat
Scenario 3
Connected maintenance sharply reduces callbacks.

Connected elevator platforms reducing mechanic callback hours across major manufacturer service portfolios by a large, sustained amount would weaken automation resistance and demand. A better dashboard or dispatch tool alone would not cross the threshold. The test is fewer mechanic hours across occupied buildings, not smoother triage.

Direction
Down, modest
Components affected
Automation Resistance, Demand
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Last reviewed June 2026 · Next September 2026