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Chinese listed firms that adopt AI exhibit higher innovation efficiency, driven by better product‑level productivity, data use and ESG scores; the uplift is largest in central and western state‑owned, asset‑ and labor‑intensive firms.

Research on the Influence Mechanism of Artificial Intelligence Application on Enterprise Innovation Efficiency
Jingwen Gu · May 27, 2026 · Advances in Economics Management and Political Sciences
openalex correlational medium evidence 7/10 relevance DOI Source PDF
Using 2012–2023 Chinese A‑share firm data, the paper finds that firms reporting AI application have higher innovation efficiency, chiefly via gains in new-quality productivity, improved data utilization, and stronger ESG performance, with larger effects in central/western state‑owned, asset‑ and labor‑intensive firms.

Based on the data of Shanghai and Shenzhen A-share listed enterprises from 2012 to 2023, this paper empirically examines the impact of artificial intelligence (AI) application on enterprise innovation. The study finds that AI application can significantly improve enterprise innovation efficiency, and the transmission mechanism is mainly realized through the mediating effects of enterprise new-quality productivity, enterprise data factor utilization level, and enterprise ESG performance. Meanwhile, market segmentation, fiscal support intensity, and human capital structure exert moderating effects on the above benchmark relationship. In addition, heterogeneity analysis shows that the impact of AI application on enterprise innovation efficiency is stronger in central and western state-owned enterprises that are asset-intensive and labor-intensive.

Summary

Main Finding

AI application by Chinese A-share firms (Shanghai & Shenzhen, 2012–2023) significantly improves enterprise innovation efficiency. This effect operates mainly via three mediating channels—new-quality productivity, data-factor utilization, and ESG performance—and is moderated (weakened or strengthened) by market segmentation, fiscal support, and human-capital structure. The effect is stronger for central & western firms, state-owned enterprises, and asset- or labor-intensive firms. Results are robust to alternative innovation measures, lagged AI, and winsorization.

Key Points

  • Primary result: Firm-level AI application → higher innovation efficiency (measured as patents per unit R&D). Coefficients positive and statistically significant across multiple specifications.
  • Mediators (all found significant):
    • New-quality productive forces (NQPF): AI → higher NQPF → higher innovation efficiency.
    • Data factor utilization (Data): AI → greater use of data-related factors → higher innovation efficiency.
    • ESG performance (ESG): AI → better ESG metrics → higher innovation efficiency.
  • Moderators:
    • Market segmentation (Seg): interaction with AI is negative → greater market segmentation weakens AI’s positive effect.
    • Fiscal support (GOV, government subsidies): positive interaction → subsidies amplify AI’s benefit for innovation efficiency.
    • Human capital structure (Human, share with bachelor+): positive interaction → better human capital amplifies AI’s benefit.
  • Heterogeneity: Effects are stronger for firms that are state-owned, located in central/western China, and that are asset-intensive or labor-intensive.
  • Robustness: Findings hold when using a weighted-patent innovation measure (InnoEff2), lagged AI, and 2% winsorization.

Data & Methods

  • Sample: Shanghai & Shenzhen A‑share listed firms, 2012–2023. Exclusions: ST/*ST/PT firms, financial sector, firms with extensive missing data.
  • Main sample sizes reported: up to ~25,701 observations for some variables; benchmark regressions use ~13,684–22,297 firm-year observations depending on controls.
  • Dependent variable:
    • InnoEff1 = Patent1 / ln(1 + R&D expenditure), where Patent1 = ln(1 + total patent applications (invention + utility model + design)).
    • Robustness check: InnoEff2 uses weighted patent counts (3:2:1) in numerator.
  • Key independent variable:
    • AI: firm-level AI application intensity measured via textual analysis of annual reports using a machine-learning-built AI dictionary (following Li Y. et al. methodology).
  • Mediators:
    • NQPF: index of new-quality productive forces (labor, objects, means) via entropy method.
    • Data: frequency count of data-related keywords in annual reports (negatives excluded).
    • ESG: firm ESG score from Shanghai Huazheng Index Information Service.
  • Moderators:
    • Seg: province-level market segmentation index (deviation from provincial marketization indices).
    • GOV: government subsidies (fiscal support intensity).
    • Human: share of employees with bachelor’s degree or above.
  • Controls: firm size, ROA, leverage, liquidity, age, board size, executive pay, Top5 ownership, PE; macro controls: GDP, industry structure, regional financial development.
  • Econometric approach:
    • Two-way fixed-effects panel regressions (firm and year fixed effects).
    • Mediation analysis via stepwise regressions (AI→mediator, mediator→InnoEff controlling for AI).
    • Moderation assessed via interaction terms (AI × moderator).
    • Robustness: alternative dependent variable, one-period lagged AI, winsorization (2%).
  • Diagnostics: correlation analysis shows AI positively correlated with innovation efficiency; VIFs reported <2 (no serious multicollinearity).

Implications for AI Economics

  • Multi-channel value capture: AI increases innovation efficiency not only by technological substitution but by enhancing organizational productive characteristics (new-quality productivity), better leveraging data as a production factor, and improving ESG outcomes—highlighting that AI’s economic value is realized across technical, organizational, and reputational dimensions.
  • Role of public policy and institutions:
    • Fiscal support (government subsidies) complements AI investments—policy can amplify firm-level R&D productivity gains from AI.
    • Market segmentation is a barrier: fragmented markets blunt AI’s enabling effects; reducing barriers to market integration could improve aggregate returns to AI adoption.
  • Human capital matters: returns to AI are larger where higher-skilled labor is available, underscoring complementarities between AI and workforce upskilling—implication for education and training policy and firm HR strategy.
  • Heterogeneous adoption returns: regional, ownership, and factor-intensity heterogeneity suggests targeted policy and firm strategy—e.g., state-owned and central/western firms may have higher marginal gains from AI; asset- and labor-intensive firms can particularly benefit.
  • Measurement and evaluation: the study demonstrates feasibility of measuring firm-level AI application via textual analysis, but also underscores that AI’s effects should be evaluated through multiple outcome channels (patent efficiency, data use, ESG).
  • Research and policy gaps: causal identification relies on panel fixed effects and lagged variables but may still face endogeneity (reverse causality, omitted variables). Future AI economics work should seek stronger quasi-experimental designs (IVs, policy shocks, randomized pilots) to pin down causality and quantify welfare gains.

Limitations to note for interpreting results: reliance on textual-proxy measure of AI; patent-based innovation-efficiency metrics may not capture all innovation forms; potential endogeneity not fully addressed beyond lags and fixed effects. Future work could extend to broader firm populations, alternative innovation outputs (product market outcomes), and causal identification strategies.

Assessment

Paper Typecorrelational Evidence Strengthmedium — The paper uses a large panel of Chinese listed firms (2012–2023) and reports robust associations, mediation and moderation tests, and heterogeneity analysis, which support plausibility; however, it lacks a clearly exogenous source of variation (no IV/diff-in-diff/natural experiment described), leaving open endogeneity (selection into AI, reverse causality) and omitted‑variable concerns that weaken causal claims. Methods Rigormedium — Employs firm-level panel data over a decade, multiple mediators and moderators, and heterogeneity checks which indicate careful empirical work, but without a clear identification strategy (e.g., instrument, policy shock, RCT) the design cannot fully rule out confounding; measurement choices for 'AI application' and innovation efficiency are also potentially noisy and not described as validated here. SampleFirm‑year panel of Shanghai and Shenzhen A‑share listed enterprises from 2012 to 2023 (publicly listed Chinese firms); outcome is firm innovation efficiency with mediators including new-quality productivity, data factor utilization, and ESG performance; heterogeneity explored by region, ownership (state-owned), asset/labor intensity. Themesinnovation adoption productivity GeneralizabilityRestricted to Chinese A‑share listed firms — excludes private, smaller, and unlisted firms, Findings reflect China's institutional, regulatory and market context (2012–2023) and may not generalize to other countries or periods, AI application measurement is likely based on proxies (e.g., disclosures/text mining) which may not capture real AI use intensity, Industry composition of listed firms (capital/labor intensive sectors) may limit applicability to services or startups, State ownership and regional heterogeneity mean effects may differ in more market‑driven or advanced regions

Claims (11)

ClaimDirectionConfidenceOutcomeDetails
AI application can significantly improve enterprise innovation efficiency. Research Productivity positive high enterprise innovation efficiency
0.3
The effect of AI application on enterprise innovation efficiency is mediated by improvements in enterprise "new-quality productivity". Research Productivity positive high enterprise innovation efficiency (via new-quality productivity)
0.3
The effect of AI application on enterprise innovation efficiency is mediated by the enterprise's data factor utilization level. Research Productivity positive high enterprise innovation efficiency (via data factor utilization)
0.3
The effect of AI application on enterprise innovation efficiency is mediated by enterprise ESG performance. Research Productivity positive high enterprise innovation efficiency (via ESG performance)
0.3
Market segmentation exerts a moderating effect on the relationship between AI application and enterprise innovation efficiency. Research Productivity mixed high enterprise innovation efficiency (moderated by market segmentation)
0.3
Fiscal support intensity moderates the impact of AI application on enterprise innovation efficiency. Research Productivity mixed high enterprise innovation efficiency (moderated by fiscal support intensity)
0.3
Human capital structure moderates the relationship between AI application and enterprise innovation efficiency. Research Productivity mixed high enterprise innovation efficiency (moderated by human capital structure)
0.3
The positive impact of AI application on enterprise innovation efficiency is stronger in firms located in central and western regions of China. Research Productivity positive high enterprise innovation efficiency (heterogeneous by region)
0.3
The positive impact of AI application on enterprise innovation efficiency is stronger in state-owned enterprises. Research Productivity positive high enterprise innovation efficiency (heterogeneous by ownership)
0.3
The positive impact of AI application on enterprise innovation efficiency is stronger in asset-intensive firms. Research Productivity positive high enterprise innovation efficiency (heterogeneous by asset intensity)
0.3
The positive impact of AI application on enterprise innovation efficiency is stronger in labor-intensive firms. Research Productivity positive high enterprise innovation efficiency (heterogeneous by labor intensity)
0.3

Notes