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University–industry AI patents in Korea are not inherently better — only firms with strong R&D and deeper, experienced collaborations convert academic ties into higher-quality patents, with absorptive capacity reducing the harms of technological distance.

Sustainable Innovation Through University–Industry Collaboration: Exploring the Quality Determinants of AI Patents
Deungho Choi, Keuntae Cho · December 29, 2025 · Sustainability
openalex correlational low evidence 7/10 relevance Summary only summary available; pdf_status=paywall DOI Source PDF

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University–industry collaboration alone does not raise AI patent quality on average in Korea, but firms with stronger R&D capability—and deeper, experienced collaborations—produce significantly higher-quality AI patents, and firms' absorptive capacity mitigates negative effects of technological cognitive distance.

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Artificial intelligence (AI) is a core technology driving the Fourth Industrial Revolution and serves as a foundation for sustainable technological competitiveness. Despite the rapid growth of AI-related patent filings in Korea, the overall quality of these patents remains relatively low. This study examines the determinants of patent quality in university–industry (UI) collaboration and investigates how firms’ R&D capability moderates this relationship. Using 90,782 AI patents filed with the Korean Intellectual Property Office (KIPO) between 2013 and 2023, the Patent Quality Index (PQI) was constructed by integrating forward citations, patent-family size, and the number of claims through min–max normalization. Regression analyses reveal that UI collaboration per se has no significant average effect on PQI, but firms with stronger R&D capability achieve higher patent quality through collaboration. In addition, greater collaboration depth and accumulated prior experience significantly enhance PQI, while the negative effect of technological cognitive distance is mitigated by absorptive capacity. These findings demonstrate that sustainable innovation outcomes depend not merely on the quantity of collaboration but on the synergy between qualitative collaboration structures and internal R&D capabilities. By linking open innovation theory with absorptive capacity, this study provides empirical evidence for fostering sustainable innovation ecosystems in which universities and firms co-create technological value.

Summary

Main Finding

University–industry (UI) collaboration does not automatically raise AI patent quality on average. Instead, higher-quality patent outcomes from collaboration depend on the partner firm’s internal R&D capability and on qualitative features of the collaboration: deeper, experienced collaborations and higher absorptive capacity increase patent quality, and absorptive capacity mitigates the harms of large technological cognitive distance.

Key Points

  • Dataset: 90,782 AI patents filed at the Korean Intellectual Property Office (KIPO), 2013–2023.
  • Patent Quality Index (PQI): constructed by combining forward citations, patent-family size, and number of claims using min–max normalization.
  • Average effect: UI collaboration alone shows no significant average improvement in PQI.
  • Moderation: Firms with stronger R&D capabilities obtain higher-quality patents from UI collaboration (positive interaction effect).
  • Collaboration structure: Greater collaboration depth and accumulated prior UI experience significantly raise PQI.
  • Cognitive distance: Large technological/cognitive distance between partners can harm patent quality, but that negative effect is mitigated when the firm (or partners) have greater absorptive capacity.
  • Theoretical framing: Links open innovation (value of knowledge inflows) with absorptive capacity (ability to recognize, assimilate, and exploit external knowledge) to explain when UI collaboration produces sustainable, high-quality innovation.

Data & Methods

  • Scope: 90,782 AI-related patent applications filed with KIPO over 2013–2023.
  • PQI construction: integrated three patent-quality indicators (forward citations, family size, number of claims), normalized via min–max scaling into a composite index.
  • Empirical approach: regression analyses testing the effect of UI collaboration on PQI, including interaction/moderation terms for firm R&D capability and absorptive capacity; additional regressors capture collaboration depth and prior collaboration experience. (Paper reports significance patterns described above.)
  • Key variables of interest: binary/continuous measures of UI collaboration, firm R&D capability, collaboration depth, accumulated experience, technological cognitive distance, absorptive capacity.
  • Identification: comparative/statistical assessment of moderation effects rather than claiming pure causal identification from experimental or instrumental-variable designs (as described in the summary).

Implications for AI Economics

  • Quality over quantity: Policymakers and firms should shift emphasis from counting collaborative projects or patent counts to fostering conditions that raise patent quality (e.g., long-term partnerships, deeper engagement).
  • R&D capacity matters: Public support and private investment to strengthen firms’ internal R&D and absorptive capacity amplify the gains from UI collaboration and improve returns to collaborative innovation spending.
  • Targeted collaboration policy: Encourage sustained, repeated UI partnerships and capacity-building programs (training, joint labs, researcher mobility) rather than short-term or superficial linkages.
  • Managing technological distance: Collaborations across distant technological domains can be productive if partners (especially firms) have the absorptive capacity to integrate unfamiliar knowledge; policy should combine matchmaking with capacity-enhancement.
  • Measurement and evaluation: Use composite quality metrics (like PQI) rather than raw patent counts when assessing national competitiveness in AI and the effectiveness of collaboration policies.
  • Ecosystem design: For a sustainable AI innovation ecosystem, coordinate university incentives, firm R&D investment, and intermediary support (technology transfer offices, industry consortia) to foster deep, experience-rich collaborations that translate into high-value IP.
  • Research agenda: Future work could explore causal mechanisms (e.g., panel methods, instruments), heterogeneity across AI subfields, and international generalizability beyond Korea.

Assessment

Paper Typecorrelational Evidence Strengthlow — Findings are based on observational regressions of patent outcomes; although the dataset is large and includes interaction terms and controls, there is no exogenous source of variation (e.g., randomized assignment, instrumental variables, or natural experiment) to rule out selection, reverse causality, or omitted-variable bias, so causal interpretation is weak. Methods Rigormedium — Uses a large (90,782-patent) administrative dataset, constructs a composite Patent Quality Index from multiple citation/claim measures, and implements regression analyses with interactions and moderation tests; however, the methods rely on standard OLS-style inference without clear strategies to address endogeneity, measurement error in key constructs (e.g., R&D capability, cognitive distance), or potential sample-selection into UI collaboration. Sample90,782 AI-related patent applications filed with the Korean Intellectual Property Office (KIPO) between 2013 and 2023, with measures for university–industry collaboration, firm R&D capability, collaboration depth, prior collaboration experience, technological cognitive distance, and a composite Patent Quality Index (PQI) based on forward citations, patent-family size, and number of claims (min–max normalized). Themesinnovation org_design GeneralizabilitySingle-country study (Korea) — institutional settings and university–industry linkages may differ elsewhere, Patents are an imperfect proxy for innovation quality/value and omit non-patented AI innovations, Analysis limited to KIPO filings — may under-represent international or commercially relevant filings, Findings pertain to AI patents specifically and may not generalize to other technology domains, Results are associative and may not hold under different time windows or measurement choices

Claims (9)

ClaimDirectionOutcomeConfidence & EvidenceDetails
90,782 AI patents were filed with the Korean Intellectual Property Office (KIPO) between 2013 and 2023. Innovation Output null_result Count of AI patent filings
Reading fidelity high
Study strength high
n=90782
0.5
A Patent Quality Index (PQI) was constructed by integrating forward citations, patent-family size, and the number of claims through min–max normalization. Output Quality null_result Patent Quality Index (PQI)
Reading fidelity high
Study strength high
n=90782
0.5
University–industry (UI) collaboration per se has no significant average effect on patent quality (PQI). Output Quality null_result Patent Quality Index (PQI)
Reading fidelity high
Study strength medium
n=90782
0.3
Firms with stronger R&D capability achieve higher patent quality through collaboration (i.e., firm R&D capability positively moderates the effect of UI collaboration on PQI). Output Quality positive Patent Quality Index (PQI)
Reading fidelity high
Study strength medium
n=90782
0.3
Greater collaboration depth significantly enhances patent quality (PQI). Output Quality positive Patent Quality Index (PQI)
Reading fidelity medium
Study strength medium
n=90782
0.18
Accumulated prior experience in collaboration significantly enhances patent quality (PQI). Output Quality positive Patent Quality Index (PQI)
Reading fidelity medium
Study strength medium
n=90782
0.18
The negative effect of technological cognitive distance on patent quality is mitigated by firms' absorptive capacity. Output Quality positive Patent Quality Index (PQI)
Reading fidelity high
Study strength medium
n=90782
0.3
Sustainable innovation outcomes depend not merely on the quantity of collaboration but on the synergy between qualitative collaboration structures and internal R&D capabilities. Organizational Efficiency mixed Sustainable innovation outcomes (interpreted via patent quality)
Reading fidelity medium
Study strength speculative
n=90782
0.03
Linking open innovation theory with absorptive capacity, the study provides empirical evidence for fostering sustainable innovation ecosystems in which universities and firms co-create technological value. Innovation Output positive Co-creation of technological value (operationalized via patent quality)
Reading fidelity medium
Study strength speculative
n=90782
0.03

Notes