Methodology

How this site sources its figures. The numbers shown are republished from external research and from U.S. Bureau of Labor Statistics projections; ranks and shares computed from those published values are shown as such. This page explains what each measures and where the coverage stops.

Reference Literature

The works below are among those behind the figures shown on this site, together with the literature we reference when framing AI exposure. Values are carried at the value each publisher assigned. Presentation is localised — for example, where a publisher expresses a value as a worded category rather than a number, the wording shown is that category translated into the page's language. Localisation changes how a value is written, not which value its publisher assigned. Localisation changes how a value is written, not which value its publisher assigned. Localisation changes how a value is written, not which value its publisher assigned. The Credits & Sources page carries the dataset attributions and licences.

  • Massenkoff & McCrory (2026) - Labor market impacts of AIReference
  • Eloundou et al. (2023) - GPTs are GPTs: theoretical task exposure framework
  • Brynjolfsson et al. (2025) - Canaries in the Coal Mine: employment effects measured from ADP payroll microdata
  • U.S. Bureau of Labor Statistics - Employment Projections 2025-2035
  • O*NET SOC Classification System - standardized occupation and task taxonomy

What the figures measure

The figures defined below are republished from external publishers, and each names its source where it appears. Where an occupation page shows a rank, a share, or a position within a published range, that value states a relation between the publisher's own values rather than a new measurement — AI Changing Work publishes no measurement of its own. This section defines the metrics below as their publishers define them.

OpenAI "GPTs are GPTs" — beta (β)
β = direct exposure (E1) + 0.5 × exposure when tools are available (E2), as defined by the source repository. We show it at occupation level under two rating regimes the authors published — human raters and GPT-4 raters — and at task level as the share of rated tasks scoring β ≥ 0.5. Values are 0–1 as published; we convert to a percentage for display only.
Anthropic Economic Index — observed exposure
A theoretical exposure index weighted by measured Claude usage, per the original report's definition. It describes usage observed at the time the dataset was published. We also show per-task penetration: how many of an occupation's tasks show any observed usage, and their mean. Values are 0–1 as published.
U.S. Bureau of Labor Statistics — Employment Projections 2025–35
Employment, median wage and projected change are transcribed from BLS Employment Projections 2025–35 (Table 1.2), a public-domain federal publication. These figures describe the SOC occupational group, not the individual job title, so occupations sharing a SOC code share them. Employment is published in thousands of jobs.
U.S. Bureau of Labor Statistics — relative AI exposure bands
BLS places each occupation in its National Employment Matrix into one of four relative bands — Low, Moderate, High, Very high — published alongside Employment Projections 2025–35. The band is a rank position among the occupations in that table, not a level, a probability of adoption, or an employment forecast, and it does not separate automation from augmentation. It is also not a first-hand BLS measurement: BLS takes each occupation's percentile ranks from several previously published studies and clusters them into the four bands. Two of those studies are among the datasets this site already carries, so the band and those figures are not independent of one another. We publish the band label as BLS wrote it, translated into the page language; the ordering number BLS does not publish is never shown. The band is assigned per National Employment Matrix (NEM) code rather than per job title, and a NEM code can cover more than one occupation on this site, so occupations sharing a NEM code carry the same band.

AI Changing Work calculates no exposure, risk or automation score of its own. Where a source dataset does not cover an occupation, we show that absence rather than substituting a figure.

Analysis Framework

Occupations are described at the level of individual tasks, because the published exposure datasets themselves rate tasks rather than whole jobs. This section sets out how those external ratings are attached to the occupations on this site.

Task-Level Decomposition
Each occupation is broken down into constituent tasks so that task-level ratings from the source datasets can be attached to it. The task lists come from O*NET; the ratings attached to them come from the external datasets and are not modified.
External exposure indices
Occupation and task exposure values are reproduced from published research datasets: Anthropic Economic Index (CC BY 4.0), OpenAI "GPTs are GPTs" exposure rubric (MIT License), ILO Working Paper 140 (CC BY 4.0), and BLS AI exposure categories (Public domain (17 U.S.C. §105)). Source values are carried at the value each publisher assigned: AI Changing Work does not rescale, reweight, reclassify or blend them, and calculates no exposure score of its own. Our contribution is the mapping onto O*NET occupation and task codes, and occupations absent from a dataset are reported as absent rather than scored. Presentation is localised — for example, where a publisher expresses a value as a worded category rather than a number, the wording shown is that category translated into the page's language. Localisation changes how a value is written, not which value its publisher assigned.
Employment projections
Employment, wage and projected-change figures are transcribed from the U.S. Bureau of Labor Statistics Employment Projections 2025–35 (Table 1.2), a public-domain federal publication. They describe the SOC occupational group, so occupations sharing a SOC code share these figures. We publish no employment projections of our own.

Data Quality & Limitations

Transparency about our limitations is essential to responsible analysis. Users should consider these factors when interpreting our data.

No Underlying Sample
Our figures are not derived from a measured sample. There is no survey, telemetry, or panel behind them, so no confidence interval can be stated. Treat every number on this site as an unvalidated estimate.
Geographic & Occupational Coverage
Coverage is limited by the source datasets: of 1,010 published occupations, some are absent from one or more of the exposure datasets and are shown as not covered rather than scored. The underlying data primarily reflects the U.S. labour market and English-language AI interactions, which may not represent global patterns.
Update Frequency
Metrics are revised when we re-run our own analysis. We do not receive automatic updates from any external data provider.
Theoretical vs. Observed Gap
Exposure is not adoption. The source datasets measure how exposed tasks are, or how much usage was observed when they were compiled; adoption barriers, regulatory constraints and organisational inertia mean real-world change typically lags technical capability. Figures also describe the moment each dataset was published, not today.

Update History

We maintain a transparent record of major data updates and methodology changes.

Initial Launch

Launched with 55 occupations across 14 categories. The figures published at launch were produced by our own model; they were withdrawn in August 2026 and replaced by externally sourced indices.

Ongoing Source Updates

Gradual expansion of occupation coverage using AI-assisted analysis combined with manual expert review. Additional data sources and regional labor market data will be incorporated.

Key References

The works listed here are among the sources and supporting literature behind the figures on this site. Each figure on an occupation page names the dataset it came from.

References

Data sources and research papers cited in our analysis.

12 references

  1. [1]Report

    Introduces 'observed exposure' metric combining theoretical LLM capabilities with real-world Claude usage data. Finds Computer Programmers at 75% coverage, while actual adoption remains far below theoretical capacity.

  2. [2]Report

    Ruth Appel, Maxim Massenkoff, Peter McCrory, Miles McCain, Ryan Heller, Tyler Neylon, Alex Tamkin

    Anthropic Economic Index report: economic primitives

    Anthropic, 2026.

    Defines five economic primitives for AI task classification: complexity, skills, use case, autonomy, and success rate. 34% of Claude.ai usage in Computer & Math occupations.

  3. [3]Working Paper

    Applies difference-in-differences methodology to measure generative AI's labor market effects across occupations.

  4. [4]Paper

    Erik Brynjolfsson, Bharat Chandar, Ruyu Chen

    Canaries in the Coal Mine? Six Facts about the Recent Employment Effects of Artificial Intelligence

    Stanford Digital Economy Lab, 2025.

    Young software developers (22-25) see ~20% employment decline from 2022 peak. 13% decline for early-career workers in AI-exposed occupations. Uses ADP payroll microdata.

  5. [5]Report

    Kunal Handa, Alex Tamkin, Miles McCain, Saffron Huang, Esin Durmus, Sarah Heck, Jared Mueller, Jerry Hong, Stuart Ritchie, Tim Belonax, Kevin K. Troy, Dario Amodei, Jared Kaplan, Jack Clark, Deep Ganguli

    Which Economic Tasks are Performed with AI? Evidence from Millions of Claude Conversations

    Anthropic, 2025.

    Analyzes millions of Claude conversations to map AI usage to O*NET occupational tasks. 36% of occupations have significant AI task coverage.

  6. [6]Working Paper

    Menaka Hampole, Dimitris Papanikolaou, Lawrence DW Schmidt, Bryan Seegmiller

    Artificial Intelligence and the Labor Market

    National Bureau of Economic Research, 2025.

    Instruments for firm-level AI adoption using historical university hiring networks. Firms with AI-related hiring history face lower adoption costs.

  7. [7]Article

    Sarah Eckhardt, Nathan Goldschlag

    AI and Jobs: The Final Word (Until the Next One)

    Economic Innovation Group (EIG), 2025.

    Finds AI effect on jobs 'invisible' by conventional metrics. Highly exposed workers show 0.30pp unemployment increase vs. 0.94pp for less exposed. Only ~9% of businesses report using AI.

  8. [8]Dataset

    U.S. Bureau of Labor Statistics

    Employment Projections: 2025-2035

    U.S. Bureau of Labor Statistics, 2025.

    Projects 5.9M new jobs 2025-2035 (+3.5% total). Computer & Math +7.3%. Retail declining.

  9. [9]Paper

    Xiang Hui, Oren Reshef, Luofeng Zhou

    The Short-Term Effects of Generative Artificial Intelligence on Employment

    Organization Science, 2024.

    Studies effects of generative AI on freelance platforms. Finds immediate negative impact on earnings and employment for workers in AI-exposed tasks.

  10. [10]Paper

    Tyna Eloundou, Sam Manning, Pamela Mishkin, Daniel Rock

    GPTs are GPTs: An early look at the labor market impact potential of large language models

    arXiv, 2023.

    80% of U.S. workforce could have 10%+ tasks affected by LLMs. 19% may see 50%+ tasks impacted. Introduces beta task exposure metric (0, 0.5, 1).

  11. [11]Paper

    Daron Acemoglu, David Autor, Jonathon Hazell, Pasciano Restrepo

    Artificial Intelligence and Jobs: Evidence from Online Vacancies

    Journal of Labor Economics, 2022. DOI: 10.1086/718327

    Analyzes AI's impact on job postings using vacancy data. Finds AI adoption displaces some tasks while creating demand for new AI-complementary skills.

  12. [12]Paper

    Daron Acemoglu, Pasciano Restrepo

    Robots and Jobs: Evidence from US Labor Markets

    Journal of Political Economy, 2020. DOI: 10.1086/705716

    Estimates that one additional robot per thousand workers reduces employment-to-population ratio by 0.2pp and wages by 0.42%.