Women in Sweden are concentrated in occupations predicted to be most exposed to generative AI, creating a risk that ChatGPT-style tools could widen the gender pay gap. Simulations based on exposure scores and assumed task complementarities suggest increased wage disparity, though the magnitude depends heavily on adoption patterns and modelling assumptions.
We examine how gender‐based occupational sorting before the release of ChatGPT relates to predicted exposure to generative AI and its potential implications for the gender wage gap. Using Swedish administrative data, we document that women are overrepresented in occupations predicted to be more affected by generative AI. Mechanical partial‐equilibrium simulations, based on hypothesized deviations from the 2021 occupational and wage distribution and incorporating predicted AI exposure and task complementarity, indicate that generative AI may widen the gender wage gap through existing patterns of gender‐based occupational sorting.
Summary
Main Finding
Women in Sweden were disproportionately concentrated in occupations predicted to be more affected by generative AI (pre-ChatGPT). Mechanical partial‑equilibrium simulations that combine those exposure patterns with assumed task complementarity suggest generative AI could widen the gender wage gap via existing gender‑based occupational sorting.
Key Points
- Pre‑ChatGPT occupational sorting: women are overrepresented in occupations with higher predicted exposure to generative AI.
- Predicted exposure is occupation‑level and task‑based (i.e., measures of how much generative AI can affect the tasks typical for each occupation).
- Simulations incorporate hypothesized deviations from the 2021 occupational and wage distribution and include assumptions about task complementarity (how AI affects productivity and wages depending on whether tasks complement or substitute human labor).
- Under plausible combinations of exposure and complementarity assumptions, generative AI increases wage pressures more in occupations with higher female share, leading to a widening of the gender wage gap.
- Results are from mechanical, partial‑equilibrium exercises — they do not model broader general equilibrium adjustments, labor reallocation, or policy/behavioral responses.
Data & Methods
- Data: Swedish administrative data on employment, occupations, and wages (baseline occupational and wage distribution from 2021).
- Exposure measure: occupation‑level predicted exposure to generative AI based on task content (constructed from external task‑AI mapping; specifics not provided in the summary).
- Empirical finding: descriptive evidence of gender concentration across exposure categories showing female overrepresentation in high‑exposure occupations.
- Simulations:
- Type: mechanical partial‑equilibrium simulations.
- Inputs: 2021 occupational and wage distribution, occupation AI exposure scores, assumed productivity/wage impacts by exposure and complementarity.
- Scenarios: counterfactual/hypothesized deviations to reflect varying degrees of AI impact and complementarity between AI and worker tasks.
- Outcome: simulated changes in occupation wages and overall gender wage gap under each scenario.
- Limitations of methods: no dynamic reallocation of labor across occupations, no firm‑level heterogeneity in adoption, and reliance on predicted exposure and complementarity assumptions rather than observed post‑adoption outcomes.
Implications for AI Economics
- Distributional risk: Generative AI can have distributional effects that depend on preexisting occupational segregation; gendered occupational structures matter for inequality outcomes.
- Policy relevance: To avoid widening gender wage gaps, policies could prioritize:
- Targeted reskilling and upskilling for workers (especially women) in high‑exposure occupations.
- Support for transitions into occupations/tasks complementary to AI.
- Monitoring of AI adoption and wage outcomes by gender and occupation.
- Labor market interventions (bargaining support, wage subsidies, redistribution) if unequal impacts materialize.
- Research priorities:
- Estimate actual (post‑adoption) impacts of generative AI on wages and employment by occupation and gender.
- Model general equilibrium effects and labor reallocation dynamics.
- Study firm heterogeneity in adoption and complementary investments that influence who benefits from AI.
- Cross‑country comparisons to evaluate how labor institutions and occupational structures mediate effects.
- Caution: Mechanical simulations indicate risk but do not prove realized outcomes—actual effects will depend on how AI is adopted, which tasks are automated vs. augmented, and policy and behavioral responses.
Assessment
Claims (3)
| Claim | Direction | Outcome | Confidence & Evidence | Details |
|---|---|---|---|---|
| Women are overrepresented in occupations predicted to be more affected by generative AI (using pre-ChatGPT occupational sorting). Automation Exposure | negative | predicted exposure to generative AI by occupation / gender representation in high-exposure occupations |
Reading fidelity
high
Study strength
medium
|
|
| Mechanical partial-equilibrium simulations indicate that generative AI may widen the gender wage gap. Wages | negative | gender wage gap (changes in wages by gender) |
Reading fidelity
high
Study strength
speculative
|
|
| The potential widening of the gender wage gap would operate through existing patterns of gender-based occupational sorting (i.e., because women are concentrated in occupations more exposed to generative AI). Wages | negative | mechanism linking occupational sorting to changes in gender wage gap |
Reading fidelity
high
Study strength
speculative
|