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AI is not an automatic growth engine: its economic payoff depends on human capital, data infrastructure and institutional complements, causing similar AI investments to yield divergent outcomes across countries and firms.

The Impact of Artificial Intelligence as a General-Purpose Technology on Economic Growth and Structural Transformation: An Innovation Ecosystem Perspective
Sultan Salur Kucuk · June 25, 2026 · Economies
openalex review_meta medium evidence 8/10 relevance Summary only summary available; pdf_status=paywall DOI Source PDF
This structured review finds that AI's macroeconomic impact is highly conditional—AI does not automatically raise growth or transform structures; outcomes depend on complementarities like human capital, data and digital infrastructure, institutional coordination, and governance capacity.

This article examines how artificial intelligence (AI), conceptualized as a general-purpose technology (GPT), shapes economic growth and structural transformation through a structured literature review covering the period from 2015 to 2025. The study adopts a structured, mechanism-oriented synthesis approach grounded in transparent search, screening, and thematic classification procedures rather than formal meta-analytic protocols. It develops an integrative innovation ecosystem framework that links three core transmission channels: (i) total factor productivity (TFP), (ii) task reallocation and labor-market restructuring, and (iii) innovation and knowledge-generation dynamics. The findings indicate that AI adoption does not generate uniform or automatic growth effects. Empirical evidence remains heterogeneous, and estimates of AI’s macroeconomic contribution vary across institutional and structural contexts. In most cases, outcomes depend less on the technology itself and more on complementary conditions—human capital formation, digital and data infrastructure, institutional coordination, and governance capacity—that enable effective diffusion. Interpreting task-based automation models alongside endogenous-growth and open-innovation frameworks clarifies why similar AI investments may lead to divergent structural outcomes. Rather than proposing a deterministic growth model, the study advances a conditional and ecosystem-centered interpretation of AI-led development. The study contributes by distinguishing foundational theoretical perspectives from the contemporary 2015–2025 evidence base, clarifying the relationship between task transformation and structural transformation, and emphasizing institutional complementarity as the key mechanism shaping AI-driven growth outcomes.

Summary

Main Finding

AI—treated as a general-purpose technology—does not automatically generate uniform or large macroeconomic growth effects. The realized contribution of AI to growth and structural change is conditional on an ecosystem of complementary factors (human capital, digital/data infrastructure, institutional coordination, governance). Interpreting task-based automation alongside endogenous-growth and open-innovation frameworks yields an ecosystem-centered, conditional account: similar AI investments can produce divergent structural outcomes depending on institutional and structural context.

Key Points

  • Conceptual framing: AI is analyzed as a general-purpose technology (GPT) whose economy-wide effects unfold through multiple, interacting channels rather than a single deterministic pathway.
  • Three core transmission channels identified:
  • Total factor productivity (TFP) — productivity gains from automation, process improvements, and AI-enabled complementarities.
  • Task reallocation and labor-market restructuring — substitution and augmentation across tasks, changing occupational and sectoral composition.
  • Innovation and knowledge-generation dynamics — AI’s influence on R&D productivity, idea flows, open innovation, and cumulative knowledge creation.
  • Methodological stance: a structured, mechanism-oriented literature synthesis (2015–2025) using transparent search, screening, and thematic classification; not a formal meta-analysis.
  • Empirical evidence is heterogeneous: estimates of AI’s macroeconomic contribution vary substantially across studies, countries, sectors, and institutional settings.
  • Key mechanism: institutional and structural complementarity. Outcomes depend more on enabling conditions (skills, data/digital infrastructure, governance, coordination) than on AI technology alone.
  • Theoretical integration: Combining task-based automation models with endogenous growth and open-innovation perspectives explains why identical AI inputs can yield different growth and structural-change trajectories.
  • Contribution to literature: (i) distinguishes foundational theoretical perspectives from recent empirical evidence, (ii) clarifies the link between task transformation and broader structural transformation, and (iii) highlights institutional complementarity as central to AI-driven development.

Data & Methods

  • Scope: systematic literature review of studies published 2015–2025.
  • Approach: structured, mechanism-oriented synthesis emphasizing transparent search, screening, and thematic classification protocols; aimed at identifying transmission mechanisms and contextual moderators.
  • Not a meta-analysis: the study does not pool effect sizes or follow formal meta-analytic statistical protocols; it synthesizes mechanisms and patterns qualitatively and conceptually.
  • Outcome: development of an integrative innovation-ecosystem framework that links the three transmission channels (TFP, task reallocation, innovation dynamics) and foregrounds complementary conditions and institutional mediators.

Implications for AI Economics

  • Modeling implications:
    • Move beyond one-dimensional causal assumptions; incorporate conditionality and interaction terms for institutional complements (skills, infrastructure, governance) in macro and micro models.
    • Integrate task-based labor models with endogenous-growth and open-innovation mechanisms to capture feedback between productivity, knowledge creation, and structural change.
  • Measurement and empirical strategy:
    • Prioritize cross-country and within-country heterogeneity analysis; collect data on data-capital, digital infrastructure, institutional quality, and skill composition.
    • Use longitudinal microdata, matched employer–employee panels, and firm-level R&D/innovation measures to trace mechanistic pathways.
    • Design quasi-experimental and structural-counterfactual studies to separate substitution vs. augmentation and short-run vs. long-run effects.
  • Policy implications:
    • Policies should focus on building complements (education and reskilling, data governance, digital infrastructure, coordinated innovation policy) rather than treating AI investment alone as sufficient.
    • Institutional coordination and governance matter for enabling positive diffusion and limiting adverse distributional outcomes.
    • Active labor-market policies and social safety nets are needed to manage transitional dislocations from task reallocation.
  • Research gaps:
    • Better causal identification of AI’s macroeffects across diverse institutional contexts.
    • Quantification of complementarities between AI and non-AI inputs (human capital, data capital, institutions).
    • Understanding long-run feedbacks between AI-enabled innovation, market structure, and knowledge spillovers.
  • Practical takeaway: AI’s promise for growth is real but conditional—economists and policymakers should evaluate AI as part of an innovation ecosystem and design interventions that strengthen the necessary complements for inclusive and sustained structural transformation.

Assessment

Paper Typereview_meta Evidence Strengthmedium — The paper synthesizes a heterogeneous empirical literature (2015–2025) and draws cautious, conditional conclusions rather than claiming novel causal estimates; evidence across studies is mixed, context-dependent, and often lacks strong causal identification, but the review systematically aggregates findings and mechanisms. Methods Rigormedium — Uses a transparent, structured search, screening, and thematic classification and offers a mechanism-oriented synthesis and integrative framework, but does not perform formal meta-analysis or quantitative pooling and remains subject to selection and synthesis subjectivity and variation in primary-study quality. SampleStructured literature review of empirical and theoretical work published 2015–2025, including academic articles, working papers and policy reports across macro, firm-level, and task-based studies on AI adoption, productivity, labor markets, and innovation; covers multiple countries and sectors but relies on the published/available evidence base rather than new primary data. Themesproductivity innovation labor_markets governance adoption GeneralizabilityFindings aggregate heterogeneous studies with differing definitions of 'AI' and measurement approaches, limiting comparability., Evidence is context-dependent (country, sector, firm size), so conclusions may not generalize uniformly across geographies or industries., Review period (2015–2025) may miss rapid post-2025 developments in AI capabilities and diffusion., Potential publication and language bias (likely emphasis on English-language and publishable results)., Lack of formal meta-analysis means effect-size generalizability is limited.

Claims (7)

ClaimDirectionOutcomeConfidence & EvidenceDetails
AI adoption does not generate uniform or automatic growth effects. Fiscal And Macroeconomic mixed economic growth (macroeconomic growth effects)
Reading fidelity high
Study strength medium
not reported
0.24
Empirical evidence remains heterogeneous, and estimates of AI’s macroeconomic contribution vary across institutional and structural contexts. Fiscal And Macroeconomic mixed AI's macroeconomic contribution (aggregate output / GDP impact)
Reading fidelity high
Study strength medium
not reported
0.24
AI-driven outcomes depend less on the technology itself and more on complementary conditions—human capital formation, digital and data infrastructure, institutional coordination, and governance capacity—that enable effective diffusion. Governance And Regulation positive AI-driven growth outcomes (magnitude/direction conditional on complementarities)
Reading fidelity high
Study strength medium
not reported
0.24
The paper develops an integrative innovation-ecosystem framework linking three core transmission channels: (i) total factor productivity (TFP), (ii) task reallocation and labor-market restructuring, and (iii) innovation and knowledge-generation dynamics. Innovation Output mixed structural transformation via linked transmission channels (TFP, task reallocation, innovation dynamics)
Reading fidelity high
Study strength low
not reported
0.12
Interpreting task-based automation models alongside endogenous-growth and open-innovation frameworks clarifies why similar AI investments may lead to divergent structural outcomes. Innovation Output mixed divergence in structural outcomes following similar AI investments
Reading fidelity high
Study strength low
not reported
0.12
Rather than proposing a deterministic growth model, the study advances a conditional and ecosystem-centered interpretation of AI-led development. Governance And Regulation mixed interpretation / conceptualization of AI-led development (conditional/ecosystem-centered vs deterministic)
Reading fidelity high
Study strength speculative
not reported
0.04
The study distinguishes foundational theoretical perspectives from the contemporary 2015–2025 evidence base and clarifies the relationship between task transformation and structural transformation, emphasizing institutional complementarity as the key mechanism shaping AI-driven growth outcomes. Task Allocation mixed relationship between task transformation and structural transformation (and role of institutional complementarities)
Reading fidelity high
Study strength low
not reported
0.12

Notes