农业图书情报学报 ›› 2025, Vol. 37 ›› Issue (6): 87-101.doi: 10.13998/j.cnki.issn1002-1248.25-0349

• 研究论文 • 上一篇    

创新价值链视角下的高校角色探究——基于中美大学联盟的对比视角

肖宇凡1,2, 陈睿1, 黄颖1,2()   

  1. 1.武汉大学 信息管理学院,武汉 430072
    2.武汉大学 科教管理与评价中心,武汉 430072
  • 收稿日期:2025-04-26 出版日期:2025-06-05 发布日期:2025-09-16
  • 通讯作者: 黄颖 E-mail:ying.huang@whu.edu.cn
  • 作者简介:肖宇凡(2001- ),女,硕士研究生,研究方向为科技计量与科技管理
    陈睿(2002- ),女,本科生,研究方向为数据科学与信息管理
  • 基金资助:
    国家自然科学基金专项项目“中美欧基础研究发展态势比较与策略研究”(L2424104);武汉大学数智文科牵引专项“数字经济时代国家创新体系的演化趋势与建构策略研究”

Exploring University Roles in the Innovation Value Chain: A Comparative Study of China's C9 League and the U.S. Ivy League

XIAO Yufan1,2, CHEN Rui1, HUANG Ying1,2()   

  1. 1.School of Information Management, Wuhan University, Wuhan 430072
    2.Center for Science, Technology & Education Assessment (CSTEA), Wuhan University, Wuhan 430072
  • Received:2025-04-26 Online:2025-06-05 Published:2025-09-16
  • Contact: HUANG Ying E-mail:ying.huang@whu.edu.cn

摘要:

【目的/意义】 随着知识经济的深入发展与全球科技竞争格局的加速演变,高校在国家创新体系中扮演着日益关键的角色,尤其高水平研究型大学不仅是原始科学发现的策源地,也是技术革新的策动者和产业升级的驱动者。 【方法/过程】 为揭示高校在科技创新全流程中的功能定位,本文引入创新价值链模型,构建高校创新角色分析体系,系统梳理高校在创新过程中的核心职能(基础研究阶段的知识创新者,应用研究阶段的技术开发者,产品研究阶段的技术转让者和市场化阶段的学术创业者),并选取中国C9联盟高校与美国常春藤联盟高校作为典型样本展开实证分析。 【结果/结论】 结果发现,中美高校在各阶段扮演着不同但互补的关键角色:中国高校凭借快速增长的科研产出,正加速构建技术储备;美国高校则凭借高影响力成果和成熟的转化机制,持续引领原始创新与产业化效率。未来,通过吸收美国高校在政策引导、协同网络和激励机制上的经验,结合本土实践,中国高校有望进一步提升知识与技术产出质量与市场化深度,优化高校成果转化体系,为高质量发展提供更强支撑。

关键词: 高校角色, 创新价值链, 科技创新, C9联盟, 常春藤联盟, 中美对比

Abstract:

[Purpose/Significance] As the knowledge economy grows and global technological competition intensifies, universities have become essential drivers of innovation within national innovation systems. Not only do high‑level research universities generate original scientific discoveries, they also serve as catalysts for technological innovation and drivers of industrial upgrading. Their roles span from conceiving breakthrough ideas to shepherding technologies through product development and into marketable applications. Nevertheless, the multifaceted nature of these contributions remains insufficiently characterized, making it difficult for policymakers and university leaders to fine‑tune strategies that maximize impact. A comprehensive understanding of how universities contribute at each stage of the innovation continuum is therefore vital for optimizing their functions, informing targeted policy interventions, and reinforcing the synergetic linkages between academia, industry, and government in both national and global contexts. [Method/Process] To clarify universities' distinct contributions at each stage of innovation, this study presents an innovation value chain model and corresponding analytical framework that systematically maps their core functions - serving as knowledge innovators during basic research, technology developers in applied research, transfer agents in product development, and academic entrepreneurs in commercialization. Based on this model, we constructed an analytical framework comprising qualitative and quantitative indicators tailored to capture university activities at each stage. During the basic research phase, metrics such as publication volume, citation impact, and basic science funding shed light on the roles of universities as innovators of knowledge. During applied research, patent filings, joint industry‑university project counts, and collaborative R&D expenditure serve as proxies for technology development capacity. The product development phase assessment centers on technology licensing volume, spin‑off formation rate, and prototype demonstration projects to gauge technology transfer effectiveness. Finally, commercialization was examined via start‑up success rates, venture funding attracted, and market penetration of university‑originated products. Empirical analysis was conducted on representative samples drawn from China's C9 League universities and the U.S. Ivy League universities, leveraging bibliometric databases, patent offices, and institutional reports to ensure data robustness. [Results/Conclusions] The findings demonstrate that universities in China and the U.S. play distinct yet complementary roles at different innovation stages. Chinese universities exhibit rapidly growing research outputs and increasing basic research capability, signaling a powerful catching‑up momentum in building technological reserves. Their strengths lie primarily in knowledge generation and early‑stage technology development, supported by substantial increases in R&D investment and talent cultivation. In contrast, U.S. universities maintain leadership in original innovation quality and commercialization efficiency, underpinned by high‑impact publications, a mature ecosystem of technology transfer offices, and established venture funding networks. They excel at translating research breakthroughs into market‑ready products and ventures, achieving higher license income per patent and greater market penetration. This comparative analysis underscores the necessity of diverse, stage‑specific university roles and highlights opportunities for cross‑border learning. In the future, Chinese higher education institutions (HEIs) can enhance their commercialization performance by adopting proven U.S. strategies, such as streamlined intellectual property policies, incentive programs for faculty entrepreneurship, and extensive industry partnerships, while adapting these practices to local contexts. By doing so, they can improve the quality and market depth of their knowledge and technology outputs, and optimize the university technology transfer system, thereby providing robust support for achieving sustainable, high‑quality economic development.

Key words: university roles, innovation value chain, technological innovation, C9 league, IVY league, China-U.S. comparison

中图分类号:  G644

引用本文

肖宇凡, 陈睿, 黄颖. 创新价值链视角下的高校角色探究——基于中美大学联盟的对比视角[J]. 农业图书情报学报, 2025, 37(6): 87-101.

XIAO Yufan, CHEN Rui, HUANG Ying. Exploring University Roles in the Innovation Value Chain: A Comparative Study of China's C9 League and the U.S. Ivy League[J]. Journal of library and information science in agriculture, 2025, 37(6): 87-101.