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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 73 comes from.

Three components - Automation Resistance, Structural Moat, and Demand - add up to 73.

FJP Durability Score
73/100
Automation Resistance
34/40

Automation Resistance is high because AI reaches estimates, takeoffs, schedules, plan review, and documents faster than it reaches field carpentry: measuring, cutting, fitting, fastening, leveling, and adjusting material on real sites. That matters for training choice and automation risk.

Sub-components
Substitution Resistance
29/30

Observed AI exposure for carpenters is 0%, and modeled median job-loss risk is 0%. That matches the work: measuring, cutting, fastening, fitting, and adjusting material on changing sites where plans meet old walls, weather, and imperfect lumber. Software can assist the office side, but it does not frame walls, hang cabinets, or make finish work fit.

Sources feeding this sub-component
Anthropic labor-market impacts → Reports 0.0% observed AI exposure for carpenters.
Tufts American AI Jobs Risk Index → Carpenters show a 26.4 exposure score, with 0% job-loss output across the published slow, median, and fast scenarios.
Augmentation Leverage
5/10

Estimating tools, takeoff software, bid drafting, scheduling, documentation, and plan coordination can make contractors and crew leads faster. The upside for an individual carpenter is useful but limited because the tools improve the business around the field craft more than the field craft itself.

Sources feeding this sub-component
ServiceTitan 2026 commercial specialty contractor report → Shows contractor AI adoption rising in commercial specialty contracting, with many uses outside field execution.
Sage 2026 Construction Industry Outlook → Shows construction AI use concentrated in office/admin, estimating, and preconstruction.
Structural Moat
23/35

Structural Moat comes mostly from physical job-site conditions, practiced skill, apprenticeship, and robotics difficulty, while the legal license wall is much thinner than in electrical or plumbing work. That matters for licensing, training depth, and seat protection.

Sub-components
Physical & Environmental
10/10

Federal physical data shows why the work creates a real barrier: carpenters lift heavy material, stand or walk through most of the day, work outdoors, use ladders and scaffolds, handle wet or dirty conditions, and rely constantly on hand use. That protects the occupation because the hard part is physical execution, not just information.

Sources feeding this sub-component
Bureau of Labor Statistics Occupational Requirements Survey 2025 → Mean maximum lift 53.16 lb; standing/walking 94.2%; outdoors 79.0%; high exposed places 88.4%; ladders, ropes, or scaffolds above 85%.
Regulatory Moat
2/12

Legal protection is modest. Some places regulate contractors or home-improvement businesses, but that is different from a broad journey-level carpenter license. Federal work-condition data shows only a small share of carpenter jobs requiring a license, certification, or registration, so skill and employer trust carry more protection than law.

Sources feeding this sub-component
CareerOneStop / DOL licensed occupations data → Shows state and local licensing is narrower than a universal carpenter license.
Archbridge State Occupational Licensing Index 2025 → No Carpenter row was found in the current master occupation list; adjacent contractor categories should not be treated as carpenter journey licensure.
Bureau of Labor Statistics Occupational Requirements Survey 2025 → License, certification, or registration required for 5.3% of carpenter jobs.
Robotics Resistance
8/8

A useful carpentry robot would need to move through ordinary job sites, read imperfect conditions, handle varied materials, cut accurately, fasten safely, and leave finished work that passes inspection and looks right. Current construction robots and modular-production tools do not replace that full field role.

Sources feeding this sub-component
IFR World Robotics 2025 service robots executive summary → Current evidence shows no broad commercial on-site carpenter replacement.
IFR World Robotics 2025 industrial robots executive summary → Shows robotics deployment concentrated in more controlled industrial settings.
Credential Depth
3/5

Carpentry usually starts with high school or equivalent preparation, then paid apprenticeship or long on-the-job learning. That creates a real skill ladder, but not a universal degree or statewide license gate. The depth comes from supervised repetition and site experience.

Sources feeding this sub-component
Bureau of Labor Statistics Occupational Outlook Handbook - Carpenters → Lists high school or equivalent, apprenticeship or on-the-job learning, and no prior work experience as the typical entry profile.
Bureau of Labor Statistics Occupational Requirements Survey 2025 → On-the-job training required for 77.4%; apprenticeship required for 19.0%; education certificate required for less than 0.5%.
Demand
16/25

Demand combines a very large workforce with steady annual openings, but the hiring source is replacement-heavy, tied to construction cycles, and more exposed to housing and project timing than repair-heavy trades. That matters for openings, geography, and timing.

Sub-components
Volume
5/10

Federal projections count about 959,000 carpenter jobs nationally, about 74,100 annual openings, and modest 4.5% growth. That is a big market, but openings are mostly replacement and construction-cycle hiring rather than a fast expansion wave.

Sources feeding this sub-component
Bureau of Labor Statistics Employment Projections → 959.0K base jobs, 4.5% projected growth, and 74.1K annual openings.
Source Quality
6/8

The hiring source is mixed but real: framing, renovation, formwork, finish work, cabinets, commercial interiors, and industrial work all need carpenters. The weaker part is that much of the market depends on housing starts, commercial building, interest rates, and local construction demand.

Sources feeding this sub-component
Resilience
5/7

Carpentry remains useful wherever buildings are built, repaired, altered, or finished. The risk is not that software suddenly does the work; it is that construction slowdowns or more offsite building methods reduce hiring in the most exposed residential framing lanes.

Sources feeding this sub-component
What would move the score
Scenario 1
A real job-site carpentry robot appears.

A paid deployment that performs carpentry across normal residential or commercial job sites would cross the threshold. A factory demo or narrow material-handling robot would not be enough; the trigger is real field work across changing sites. It would need to reduce skilled carpenter hours, not just assist layout.

Direction
Down, meaningful
Components affected
Robotics Resistance, Substitution Resistance
Scenario 2
Offsite construction becomes a much larger framing substitute.

A sustained move from today's small offsite share to roughly 15% or more of single-family completions would cross the threshold. That would put residential framing under pressure before finish, commercial, cabinet, or industrial lanes. The threshold is broad enough adoption to change local crew demand.

Direction
Down, modest
Components affected
Demand
Scenario 3
Construction demand stays weak for two quarters.

Two consecutive quarters of materially weak housing starts, remodeling demand, or commercial construction would cross the watch threshold. Replacement openings help, but carpenter hiring is still exposed to building cycles in a way repair-heavy trades are not. That would show up in starts, permits, backlogs, and hiring.

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