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AI adoption is reshaping EU labour markets, hitting routine office and administrative roles hardest; the Netherlands, France, Portugal, Italy and Malta appear best positioned to translate AI diffusion into favourable labour‑market transformation.

Artificial intelligence as a driver of economic growth: Challenges and prospects for the labor market
Svitlana Korobka, Nataliia Tilikina, T. Gorokhova, M. Kravchenko, M. Lukash · Fetched March 23, 2026 · International Journal of Data and Network Science
semantic_scholar correlational medium evidence 7/10 relevance DOI Source
Using an input-oriented envelope model on EU countries, the paper finds that AI diffusion is associated with substantial restructuring of employment—most prominently reducing roles with routine analytical and administrative tasks—and identifies several countries (Netherlands, France, Portugal, Italy, Malta) as relatively well-positioned to convert AI diffusion into positive labor-market outcomes.

The article highlights the consequences and transformational changes in labor markets and labor resources due to the spread of artificial intelligence. The purpose of the article is to empirically study the processes of interaction between artificial intelligence and national labor markets, as well as to develop methodological tools for quantifying the impact of AI technologies on labor market parameters. The research methodology is based on the envelope model (“input” orientation) to assess the level of transformation of labor resources and labor markets as a result of the spread of artificial intelligence for a sample of European Union countries. The study found a significant transformation of the employment structure under the influence of artificial intelligence, where the most vulnerable occupational groups are office workers, data entry operators, call center workers, accountants, and administrative staff with routine analytical and administrative tasks. The study identified countries that can optimally transform AI diffusion (the Netherlands, France, Portugal, Italy, and Malta) for the domestic labor market into results when the trend of economic development and the realization of human capital potential is formed. The obtained results confirmed the existence of reserves for optimizing the interaction of artificial intelligence with the labor market, with an emphasis on the need to adapt AI to the specifics of economic models of national economies.

Summary

Main Finding

The spread of artificial intelligence is materially transforming labor markets across EU countries, altering employment structures and disproportionately affecting routine administrative and clerical occupations. Using an input‑oriented envelope model to quantify these effects, the study finds both significant displacement risks for specific occupational groups and measurable cross‑country differences in the capacity to convert AI diffusion into positive labor‑market outcomes. It also identifies scope (“reserves”) for optimizing AI–labor market interactions by aligning AI adoption with national economic models and human‑capital potential.

Key Points

  • AI diffusion materially reshapes employment structure; the most vulnerable occupational groups are:
    • office workers,
    • data entry operators,
    • call‑center workers,
    • accountants,
    • administrative staff performing routine analytical/administrative tasks.
  • The study develops methodological tools to quantify AI’s impact on labor-market parameters using an envelope (input‑oriented) model.
  • Cross‑country heterogeneity: the Netherlands, France, Portugal, Italy, and Malta are highlighted as countries that can most effectively transform AI diffusion into favorable domestic labor‑market outcomes given current trends and human‑capital endowments.
  • Results point to existing reserves for improving the AI–labor market interface (policy levers, adaptation strategies).
  • Emphasizes the need to adapt AI adoption strategies to the specific economic models and human‑capital structures of national economies.

Data & Methods

  • Methodological approach: envelope model with an “input” orientation (i.e., an input‑oriented Data Envelopment Analysis (DEA) style framework) to assess the level of transformation of labor resources and labor markets attributable to AI diffusion.
  • Scope: comparative empirical analysis for a sample of European Union countries (study text reports cross‑country estimates and ranking of countries by transformational capacity).
  • Variables & focus: quantification centered on labor‑market parameters and labor‑resource transformation; model gauges how AI diffusion relates to employment structure changes and the ability to realize human‑capital potential.
  • Notes on limitations and assumptions:
    • Input‑oriented envelope models focus on minimizing inputs for given outputs; results depend on chosen inputs/outputs and on cross‑country comparability.
    • Dynamic, long‑run adjustment processes (e.g., re‑skilling, occupational mobility) may be only partially captured depending on data frequency.
    • Findings are conditional on the sample, model specification, and measures of AI diffusion used.

Implications for AI Economics

  • Policy targeting: prioritize retraining and reallocation programs for routine administrative and clerical occupations at highest risk, and design social‑insurance measures to smooth transitions.
  • Tailored AI strategies: align AI adoption and regulation with national economic structures and human‑capital endowments rather than applying uniform, one‑size‑fits‑all approaches.
  • Monitoring & measurement: envelope/DEA‑style tools provide a pragmatic way to benchmark country performance in converting AI diffusion into positive labor‑market outcomes; useful for cross‑country policy evaluation.
  • Leveraging exemplars: countries identified as effective transformers (Netherlands, France, Portugal, Italy, Malta) can serve as case studies for policies that maximize human‑capital realization from AI.
  • Research agenda: need for dynamic, longitudinal analyses to capture up‑skilling, occupational shifts, and productivity gains over time; further work to refine input/output choices and to disaggregate impacts by sector, occupation, and demographic groups.

Assessment

Paper Typecorrelational Evidence Strengthmedium — The paper provides systematic, quantitative cross-country evidence of associations between AI diffusion and changes in employment structure using an established efficiency modelling approach; however, it lacks exogenous variation or clear causal identification, relies on aggregate country-level measures and model assumptions, and likely faces omitted variable and measurement limitations that reduce confidence in causal interpretation. Methods Rigormedium — The envelope/input-oriented approach is a defensible method for comparing transformation/efficiency across units and can highlight relative performance and vulnerabilities, but the rigor is limited by (a) no plausibly exogenous shock or identification strategy to isolate causal effects, (b) potential sensitivity to variable selection and model specification, (c) aggregation at the national level and likely small sample (EU countries), and (d) limited information on robustness checks, timing, or alternative specifications. SampleCountry-level sample covering member states of the European Union (specific years and data sources not provided in the summary); uses national-level indicators for AI diffusion and labour-market/occupational employment structure with focus on occupational groups (office workers, data entry operators, call-centre workers, accountants, administrative staff) and country-level transformation/efficiency scores. Themeslabor_markets adoption IdentificationUses an envelope model (input-oriented efficiency analysis, similar to DEA) to compare levels of labor-resource transformation across European Union countries as AI diffuses; identification is comparative/correlational (efficiency scores and associations) rather than based on exogenous variation or quasi-experimental contrasts, so causal claims are not separately identified. GeneralizabilityLimited to European Union countries—results may not hold for low- and middle-income countries or non-EU institutional contexts, National-aggregate analysis masks within-country heterogeneity (regional, sector, firm-size, and worker-level differences), Findings depend on how 'AI diffusion' and occupational vulnerability are measured—different metrics could change conclusions, Cross-sectional/aggregate design cannot capture short-run dynamics or causal pathways (retraining, job creation, redeployment), Sample and time period unspecified—may not generalize to later phases of AI adoption

Claims (5)

ClaimDirectionConfidenceOutcomeDetails
The study found a significant transformation of the employment structure under the influence of artificial intelligence. Employment mixed high transformation of employment structure
0.3
The most vulnerable occupational groups to AI-driven transformation are office workers, data entry operators, call center workers, accountants, and administrative staff with routine analytical and administrative tasks. Job Displacement negative high vulnerability / exposure to AI-driven job displacement
0.3
Certain countries can optimally transform AI diffusion into positive domestic labor-market outcomes (economic development and realization of human capital potential): the Netherlands, France, Portugal, Italy, and Malta. Adoption Rate positive high capacity to translate AI diffusion into economic development and human capital realization
0.3
There exist reserves for optimizing the interaction of artificial intelligence with the labor market, and it is necessary to adapt AI to the specifics of national economic models. Governance And Regulation positive high potential to optimize AI–labor-market interaction / need for policy adaptation
0.3
The research methodology is based on the envelope model ("input" orientation) to assess the level of transformation of labor resources and labor markets due to the spread of artificial intelligence. Other null_result high method of measurement / assessment approach
0.15

Notes