Methodology

How we built the European AI Jobs Impact Map: data sources, scoring approach, layer definitions, normalization, and known limitations.

1. Data Sources

SourceCoverageGranularityRef. YearUsed For
ESCO v1.2.1 3,043 occupations → 125 groups Occupation descriptions + skills 2024 (structural) Scoring input
Eurostat EU-LFS (lfsa_egai2d) 35 countries ISCO 2-digit 2024 Employment counts
Eurostat SES (earn_ses22_28) 35 countries ISCO 1-digit 2022 Wages
Eurostat LFS (lfsa_egised) 35 countries ISCO 1-digit × ISCED 2024 Education levels
BFS LSE/SAKE Switzerland ISCO 2-digit / 1-digit 2024–2025 Swiss wages + employment
ONS ASHE United Kingdom SOC 2-digit → ISCO 2025 UK wages + employment
Cedefop Skills Forecast 2025 33 countries (EU27 + IS, NO, CH, MK, TR) ISCO 1-digit 2024→2035 projections Employment growth
Anthropic Economic Index US (global by occupation) SOC major groups 2025–2026 Observed AI adoption
Microsoft Working with AI US (global by occupation) SOC detailed → major groups 2024 AI applicability scores
OpenAI GPTs are GPTs US (global by occupation) SOC detailed → major groups 2023 Theoretical AI exposure ceiling

2. AI Exposure Scoring

Each of the 125 European occupation groups (ISCO-08 3-digit level) was scored by Claude Sonnet 4 (Anthropic) on two dimensions using standardised rubrics with calibration anchors.

Technical Exposure (0–10) measures how much AI could reshape an occupation’s core tasks. The scoring is based on ESCO occupation descriptions covering skills, tasks, and work context for 3,043 detailed occupations, aggregated into 125 ISCO groups. The key signal is whether the work product is fundamentally digital: occupations performed entirely on a computer (writing, coding, analysing, communicating) score 7+, while occupations requiring physical presence have a natural barrier.

Regulated Exposure (0–10) starts from the technical score and adjusts downward for regulatory friction that slows, constrains, or redirects AI adoption. This accounts for EU AI Act obligations (Annex III high-risk classification, Art 26 worker information, Art 14 human oversight), GDPR constraints (Art 22 automated decisions, Art 35 impact assessments), works council requirements (DE: BetrVG §87, AT: ArbVG §96a), and sector-specific regulation. The average EU regulatory delta is 1.2 points. A separate UK regulated score reflects the UK’s lighter framework (avg delta: 0.5 points).

The difference between technical and regulated scores — the regulatory delta — quantifies the friction that buys workers and institutions transition time. This is not a barrier to AI adoption but a speed bump: it slows deployment, increases compliance costs, and requires organisations to justify their AI use.

The full scoring rubrics are available in the collapsible disclosure on the interactive map.

3. Layer Definitions

AI Exposure (Technical)

LLM-scored capability assessment of how much AI could reshape each occupation. Color scale: green (low, 0–2) → yellow (moderate, 4–6) → red (high, 8–10). A higher score does not mean the job will disappear — it means the job will change fastest. Explore this layer on the map →

AI Exposure (Regulated)

Same assessment adjusted for regulatory friction. The average EU delta is 1.2 points; the UK delta is 0.5 points. Same color scale as technical exposure. Toggle between Technical and Regulated to see how regulation reshapes the exposure landscape. Explore this layer on the map →

Median Pay

Within-country percentile rank of mean annual wages, rescaled 0–10. Color scale: green (lower pay percentile) → red (higher pay percentile). Sources: Eurostat SES 2022 (ISCO 1-digit, 34 countries), BFS LSE 2024 (ISCO 2-digit, Switzerland), ONS ASHE 2025 (SOC 2-digit → ISCO, UK). Explore this layer on the map →

Employment Growth

Blended score: 40% Eurostat year-over-year employment change + 60% Cedefop 2024→2035 CAGR. Z-score normalized, then rescaled 0–10 within country. Color scale: red (declining) → green (growing). UK shows Eurostat YoY only (no Cedefop coverage for the UK). Explore this layer on the map →

Education Level

Share of workers with tertiary education (ISCED 5–8), rescaled 0–10 within country. Color scale: green (lower share of tertiary-educated workers) → red (higher share). Source: Eurostat LFS (lfsa_egised) 2024, ISCO 1-digit. Explore this layer on the map →

Adoption Reality

Triangulated from three lab studies: Anthropic (Claude usage data), Microsoft (Copilot usage data), and OpenAI (theoretical exposure ceiling). Shows observed AI adoption relative to theoretical potential. Applied globally per occupation (US-sourced data). Color scale: gray (low adoption) → amber → red (high adoption). The gap between theoretical ceiling and observed usage — roughly 35% across knowledge-work occupations — is where regulation, organizational inertia, and transition time live. Explore this layer on the map →

AI Augmentation

Composite score: 0.5 × Technical Exposure + 0.3 × Employment Growth + 0.2 × Education Level. Z-score normalized within country before weighting, then rescaled 0–10. Identifies occupations where high AI exposure meets growing demand and an educated workforce — jobs most likely to be transformed and amplified by AI, not eliminated. Explore this layer on the map →

4. Normalization & Propagation

Within-country normalization: All layer scores are normalized to 0–10 within each country. Pay uses percentile-rank; growth, education, and augmentation use min-max rescaling after z-score normalization. This ensures meaningful comparisons within a country while respecting that absolute levels differ across countries.

ISCO 1-digit propagation: Growth, education, and adoption data are available at ISCO 1-digit resolution (9 major groups). These scores are propagated to all child 3-digit groups within each major group. This means all occupations within a major group (e.g., all Professionals) receive the same growth, education, and adoption scores. This approach matches Karpathy’s original methodology of applying BLS broad-category data to detailed occupations.

Augmentation composite: Uses z-score normalization within country before weighting (0.5/0.3/0.2) to ensure each component contributes proportionally regardless of scale differences.

EU-27 aggregate: Computed as the employment-weighted average of all 27 member states. Each country’s contribution to the aggregate is proportional to its employment count in that occupation group.

5. Limitations

6. Citation

If you use Cedefop data, please cite:

European Centre for the Development of Vocational Training (Cedefop). Cedefop Skills Forecast 2025. Thessaloniki: Greece. Available at: cedefop.europa.eu

To cite this project:

Philipp Maul | Nexalps. AI Exposure of the European Job Market, 2026. ai-exposure.nexalps.com. Code: MIT. Data & Analysis: CC-BY 4.0.

Source code: The full pipeline (data preparation, Eurostat fetching, scoring, site generation) is open source on GitHub.

Explore the data this methodology supports.

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