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Long-horizon patient capital is linked to stronger high-quality growth in China's strategic emerging industries, working through digital–green transformation, better information, and easier financing; the payoff is larger for firms that adopt AI and varies markedly by region and industry.

The Impact of Patient Capital on the High-Quality Development of Enterprises in Strategic Emerging Industries
Fangfang Ji, Mu Zhang · March 31, 2026 · Journal of risk analysis and crisis response
openalex correlational low evidence 7/10 relevance DOI Source PDF
Using panel data on 743 Chinese listed strategic-emerging firms (2014–2023), the study finds that greater patient capital—especially stable equity and relationship-based debt—is associated with higher firm-level high-quality development, partly mediated by digital–green transformation, reduced information asymmetry, and eased financing constraints, and amplified where AI applications are stronger.

The high-quality development of enterprises in strategic emerging industries plays a crucial role in achieving high-quality economic development. As a form of long-term strategic investment adhering to the principles of value investing, patient capital is emerging as a key driver of high-quality development in these enterprises. Based on data from 743 listed enterprises in China’s strategic emerging industries from 2014 to 2023, this study examines the differential effects of patient capital on the high-quality development of these enterprises. It further tests the mediating roles of digital-green transformation synergy, information asymmetry, and financing constraints, as well as the moderating role of artificial intelligence applications. The results indicate: First, patient capital plays a significant role in promoting the high-quality development of enterprises in strategic emerging industries; second, patient capital promotes the high-quality development of these enterprises by enhancing the level of synergy in digital and green transformation, alleviating information asymmetry, and easing financing constraints. Third, the application of artificial intelligence enhances the positive impact of patient capital on the high-quality development of enterprises in strategic emerging industries; fourth, the impact of patient capital on the high-quality development of enterprises in strategic emerging industries exhibits distinct differences across regional heterogeneity and industrial characteristics. Analysis of regional heterogeneity reveals that enterprises in the central region are more sensitive to patient capital in terms of high-quality development, while an analysis of industrial heterogeneity reveals that the effects of two distinct forms of patient capital—stable equity and relationship-based debt—are more pronounced in promoting high-quality development in the new energy vehicle industry, energy conservation and environmental protection industry, biotechnology industry, new materials industry, and next-generation information technology industry. Compared to relationship-based debt, stable equity significantly promotes high-quality development in the high-end equipment manufacturing and new energy industries. This study provides theoretical foundations and policy implications for leveraging patient capital to drive high-quality development in strategic emerging industries.

Summary

Main Finding

Patient capital (long-horizon, value-oriented equity and relationship-based debt) significantly promotes the high-quality development of Chinese firms in strategic emerging industries (sample: 743 listed firms, 2014–2023). It works through three channels—enhancing digital–green transformation synergy, reducing information asymmetry, and easing financing constraints—and the positive effect is strengthened by firms’ application of artificial intelligence (AI). Effects vary by region and sub-industry: central-region firms are most responsive, and stable equity vs relationship-based debt differ in effectiveness across specific emerging sectors.

Key Points

  • Core result: Patient capital → higher firm-level high-quality development (HQD).
  • Mechanisms:
    • Digital–green transformation synergy (DGS): patient capital supports long‑horizon investments that integrate digital tech and green practices, raising productivity and sustainability.
    • Information asymmetry (ASY): patient investors’ long-term engagement and expertise reduce information gaps and adverse selection.
    • Financing constraints (FC): patient capital provides stable funding and market signaling that relax financing bottlenecks for long‑cycle innovation.
  • Moderation: Higher levels of firm AI application amplify the positive effect of patient capital on HQD.
  • Heterogeneity:
    • Regional: strongest impact in the central region; weaker marginal effects in the east (more diversified finance) and west (weaker absorptive capacity/institutional environment).
    • Sub-industry: patient capital (both stable equity and relationship-based debt) most effective in new energy vehicles, energy conservation & environmental protection, biotechnology, new materials, and next‑generation information technology. Stable equity shows particularly strong effects in high‑end equipment manufacturing and new energy sectors compared with relationship-based debt.
  • Contributions: extends patient-capital literature to strategic emerging industries; identifies digital–green synergy, ASY, and FC as mediating channels; positions AI adoption as a key moderator.

Data & Methods

  • Data: Panel of 743 China-listed firms classified in strategic emerging industries, covering 2014–2023.
  • Dependent variable: firm-level high-quality development index (HQD).
  • Key independent variables: patient capital proxies—Equity (stable equity holdings) and Debt (relationship-based debt).
  • Mediators: indices/proxies for digital–green transformation synergy (DGS), information asymmetry (ASY), and financing constraints (FC).
  • Moderator: firm-level AI application intensity.
  • Empirical approach:
    • Baseline regressions with firm (industry) and year fixed effects to estimate the effect of patient capital on HQD.
    • Mediation testing following a two‑step procedure (estimate effect of patient capital on mediators, then mediators on HQD).
    • Moderation tested via interaction terms (PatientCapital × AI).
    • Heterogeneity analyses across regions (east/central/west) and sub-industries; robustness checks reported.
  • Identification / limitations (as presented): fixed-effects panel controls and multiple robustness analyses; paper does not claim randomized identification—residual endogeneity concerns and measurement choices remain possible limitations.

Implications for AI Economics

  • Complementarity between AI and long-horizon finance: AI adoption reduces innovation uncertainty and improves resource allocation, increasing expected returns to patient capital. Models of AI-driven growth should incorporate financing regime effects (long-term vs short-term finance) as modifiers of AI adoption payoffs.
  • AI as a mechanism to lower information frictions: empirical evidence suggests AI both (a) magnifies the governance/monitoring value of patient investors and (b) can be modeled as an information-production technology that changes investors’ incentives and risk sharing.
  • Policy design: to maximize societal returns from AI and green/digital transitions, policies should:
    • Encourage patient-capital vehicles (stable equity funds, relationship-based debt structures) targeted to AI‑intensive emerging sectors.
    • Promote AI diffusion in firms to unlock complementary investment from patient capital.
    • Use regionally tailored approaches—central regions may yield larger marginal returns to patient-capital policies than mature eastern regions or capacity-constrained western areas.
  • Corporate finance and investor strategy:
    • Patient-capital providers should prioritize AI-capable firms because AI increases the effectiveness of long-horizon investments.
    • Investors and policymakers evaluating industrial policy for AI should account for the role of patient capital in alleviating financing frictions for long-cycle AI commercialization.
  • Research directions for AI economics:
    • Quantify how AI adoption changes the risk-return profile of long-term investments and the demand for patient capital.
    • Causal identification of the interaction (e.g., instrumenting patient capital or leveraging policy shocks to patient-capital supply).
    • Cross-country comparisons to test external validity where financial systems and AI ecosystems differ.

Reference: Ji, F.-f., & Zhang, M. (2026). The Impact of Patient Capital on the High-Quality Development of Enterprises in Strategic Emerging Industries. Journal of Risk Analysis and Crisis Response, 16(1), 43–62. DOI: https://doi.org/10.54560/jracr.v16i1.844

Assessment

Paper Typecorrelational Evidence Strengthlow — The study uses rich panel data and tests plausible mediation and moderation channels, but it lacks a clear exogenous identification strategy (IV, RDD, DiD from a plausibly exogenous shock, or randomized assignment). Associations may reflect reverse causality or omitted variables (e.g., unobserved managerial quality, concurrent policy changes), so causal interpretation is weak. Methods Rigormedium — The paper leverages a decently sized firm-level panel, conducts mediation and moderation analyses, and reports regional and industry heterogeneity which strengthens internal validity; however, without a formal strategy to address endogeneity (instrumentation, plausibly exogenous shock, or convincing dynamic panel methods reported), methods cannot be judged as high rigor for causal claims. SamplePanel of 743 listed enterprises in China's designated strategic emerging industries observed annually from 2014 to 2023; firm-level measures of 'patient capital' (distinguishing stable equity and relationship-based debt), outcome measure of 'high-quality development', mediators (digital-green transformation synergy, information asymmetry, financing constraints), an AI application intensity measure, and standard firm controls plus region/industry/time variation. Themesinnovation adoption IdentificationFirm-level panel analysis (2014–2023) exploiting cross-sectional and time-series variation in measures of patient capital across 743 listed Chinese firms; regression analyses with mediators (digital-green transformation synergy, information asymmetry, financing constraints) and an interaction term for AI application to test moderation. No explicit exogenous instrument, natural experiment, or discontinuity is reported, so causal identification rests on controls, timing, fixed effects, and robustness/heterogeneity checks rather than an externally imposed source of exogenous variation. GeneralizabilitySample restricted to listed Chinese firms in designated strategic emerging industries — may not generalize to unlisted SMEs or firms in other countries, Results reflect China's regulatory, financial and industrial policy context (2014–2023) and may not hold elsewhere or in different policy regimes, Measures of patient capital and AI application are likely operational definitions that may not map onto other datasets or settings, Observational design limits external validity for causal policy prescriptions

Claims (9)

ClaimDirectionConfidenceOutcomeDetails
Patient capital plays a significant role in promoting the high-quality development of enterprises in strategic emerging industries. Firm Productivity positive high high-quality development of enterprises (firm-level)
n=743
0.3
Patient capital promotes the high-quality development of these enterprises by enhancing the level of synergy in digital and green transformation (digital-green transformation synergy). Firm Productivity positive high high-quality development of enterprises (mediated by digital-green transformation synergy)
n=743
0.3
Patient capital promotes the high-quality development of these enterprises by alleviating information asymmetry. Firm Productivity positive high high-quality development of enterprises (mediated by information asymmetry)
n=743
0.3
Patient capital promotes the high-quality development of these enterprises by easing financing constraints. Firm Productivity positive high high-quality development of enterprises (mediated by financing constraints)
n=743
0.3
The application of artificial intelligence enhances the positive impact of patient capital on the high-quality development of enterprises in strategic emerging industries. Firm Productivity positive high high-quality development of enterprises (moderated by AI application)
n=743
0.3
The impact of patient capital on the high-quality development of enterprises exhibits regional heterogeneity: enterprises in the central region are more sensitive to patient capital in terms of high-quality development. Firm Productivity positive high high-quality development of enterprises (differential effect across regions)
n=743
0.3
The effects of two distinct forms of patient capital—stable equity and relationship-based debt—are more pronounced in promoting high-quality development in the new energy vehicle industry, energy conservation and environmental protection industry, biotechnology industry, new materials industry, and next-generation information technology industry. Firm Productivity positive high high-quality development of enterprises (industry-specific stronger effects of two patient-capital forms)
n=743
0.3
Compared to relationship-based debt, stable equity significantly promotes high-quality development in the high-end equipment manufacturing and new energy industries. Firm Productivity positive high high-quality development of enterprises (comparison of effects by financing type within industries)
n=743
0.3
This study uses data from 743 listed enterprises in China’s strategic emerging industries from 2014 to 2023 and employs mediation and moderation (interaction) tests to examine mechanisms (digital-green synergy, information asymmetry, financing constraints) and the moderating role of AI applications. Other null_result high research design / dataset description
n=743
0.5

Notes