工程机械制造企业科技自立自强能力形成机制研究——基于徐工集团技术标准与知识产权协同视角

王举铎, 王黎萤, 陈劲, 马蕾

科研管理 ›› 2025, Vol. 46 ›› Issue (4) : 21-33.

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科研管理 ›› 2025, Vol. 46 ›› Issue (4) : 21-33. DOI: 10.19571/j.cnki.1000-2995.2025.04.003  CSTR: 32148.14.kygl.2025.04.003

工程机械制造企业科技自立自强能力形成机制研究——基于徐工集团技术标准与知识产权协同视角

作者信息 +

Research on the formation mechanism of technological self-reliance and self-improvement capability of the construction machinery manufacturing enterprises: A case study from the perspective of XCMG's synergy of technical standards and intellectual property

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摘要

企业科技自立自强能力培育是我国以全面创新推进中国式现代化发展的重要支撑,其中知识产权作为互补性资产赋能技术标准升级为主导设计,是科技自立自强能力形成关键举措,但二者协同影响企业科技自立自强能力形成机制尚不明晰。为此本研究以工程机械制造领军企业徐州工程机械集团有限公司为例开展纵向单案例研究,探索技术标准与知识产权协同推进企业科技自立自强能力形成机制。研究发现:(1)企业科技自立自强能力由六维能力要素构成,包括科技创新自主和引领能力、国际市场开拓和竞争能力、制度规则主导和可控能力。(2)不同主导设计阶段技术标准与知识产权的协同方向从“同轨”转向“变轨”、协同相对速度演变方向为“单向异速—双向异速—同速—加速”。异质性协同行为形成防御、进攻、自主、共赢等协同机制,是企业科技自立自强能力构建过程机制。(3)主导设计阶段跃迁过程中协同相对速度驱动协同方向改变,呈现“异速受制同轨—同速驱动变轨—加速实现引领”变化趋势,这一过程使不同能力水平及能力组合升级,是实现科技自立自强能力提升的重要机制。本研究从“科技创新—市场发展—制度规则”三维框架深度解构企业科技自立自强能力内涵,以协同相对速度和协同方向全新视角开展二者协同行为动态演进研究,建构起二者协同对企业科技自立自强能力构建及提升机制,为我国以工程机械为代表的科技创新制造企业以全面创新推进中国式现代化发展提供重要启示。

Abstract

The cultivation of enterprises' technological self-reliance and self-improvement capability is an important support for China to promote the development of Chinese path to modernization through comprehensive innovation. Among them, the upgrading of intellectual property as a complementary asset enabling technology standard is the dominant design, which is a key measure for the formation of enterprises' technological self-reliance and self-improvement capability. However, the process mechanism is still unclear. This study conducted a single case study based on XCMG, a leading enterprise in the construction machinery manufacturing industry, exploring the mechanism of the synergy between technical standards and intellectual property to promote the formation of technological self-reliance and self-improvement capability. The research found that: (1) the technological self-reliance and self-improvement capability is composed of six elements of capabilities, including independent and leading capabilities in technological innovation, development and competition capabilities in international market, leading and controllable capabilities in institutional rules; (2) technical standards and intellectual property in different dominant design stages has shifted the direction of synergistic from "same track" to "changing track", and the relative speed of their synergistic has evolved from "different speed-same speed -acceleration". heterogeneous synergistic behavior forms synergistic mechanisms such as defense, offense, autonomy, and win-win, which is the process mechanism for building technological self-reliance and self-improvement capabilities; and (3) during the transition process of leading the design phase, the collaborative relative velocity drives the change of collaborative direction, presenting a change of "different speeds constrained by the same orbit - same speed driven orbit change - acceleration leading". This process is the mechanism for upgrading different levels of capabilities and combinations to ultimately form the ability to achieve technological self-reliance and self-improvement. This research has deconstructed the connotation of enterprises' technological self-reliance and self-improvement capability from the three-dimensional framework of "technological innovation-market development-institutional rules", carried out dynamic evolution exploration of their synergy behavior from a new perspective of the relative speed and direction of synergy, and constructed a mechanism for building and improving enterprises' technological self-reliance and self-improvement capability based on the synergy of the two, and it will provide important enlightenment for China's scientific and technological innovation manufacturing enterprises represented by construction machinery to comprehensively promote the development of Chinese path to modernization through innovation.

关键词

企业科技自立自强能力 / 主导设计 / 技术标准 / 知识产权 / 协同

Key words

technological self-reliance and self-improvement capability / dominant design / technical standard / intellectual property / synergy

引用本文

导出引用
王举铎, 王黎萤, 陈劲, . 工程机械制造企业科技自立自强能力形成机制研究——基于徐工集团技术标准与知识产权协同视角[J]. 科研管理. 2025, 46(4): 21-33 https://doi.org/10.19571/j.cnki.1000-2995.2025.04.003
Wang Juduo, Wang Liying, Chen Jin, et al. Research on the formation mechanism of technological self-reliance and self-improvement capability of the construction machinery manufacturing enterprises: A case study from the perspective of XCMG's synergy of technical standards and intellectual property[J]. Science Research Management. 2025, 46(4): 21-33 https://doi.org/10.19571/j.cnki.1000-2995.2025.04.003
中图分类号: F204;F273.1   

参考文献

[1]
TEECE D J. Profiting from innovation in the digital economy: Enabling technologies,standards, and licensing models in the wireless world[J]. Research Policy, 2018, 47(8):1-21.
[2]
BREM A, NYLUND P A, SCHUSTER G. Innovation and defacto standardization: The influence of dominant design on innovative performance radical innovation and process innovation[J]. Technovation, 2016(50):79-88.
[3]
BREM A, NYLUND P. The inertia of dominant designs in technological innovation: An ecosystem view of standardization[J]. IEEE Transactions on Engineering Management, 2024, 71:2640-2648.
[4]
WU D, ZOU F. Dominant design selected by users: Dynamic interaction and convergence of users[J]. Technovation, 2025, 140:103166.
[5]
王黎萤, 王举铎, 黄灿, 等. 基于标准竞合创新网络的组织合法性获取研究:以新一代信息技术领军跨国企业为例[J]. 科学学研究, 2024, 42(10):2228-2240.
摘要
研究以新一代信息技术产业领军企业华为技术有限公司为例,探究基于标准竞合的创新网络合法性获取的内在机理和动态机制。研究发现,跨国企业在标准国际化不同阶段构建的基于标准竞合的创新网络模式在焦点合法性评估者制度逻辑触发下呈现“利用型—探索型—主导型—自主可控型”的阶段性演化。阶段性构建的上述网络及形成的标准化能力、竞合能力和网络编排能力是跨国企业动态获取合法性的内在机理。形成上述核心能力水平及能力整合深度是跨越合法性阈值的动态机制。研究解析了标准国际化背景下合法性动态获取及阈值跨越的过程机理,为新一代信息技术跨国企业合法性获取提供重要启示。
WANG Liying, WANG Juduo, HUANG Can, et al. Research on the acquisition of organizational legitimacy based on standard competitive and cooperative innovation network: A case study of the new generation of leading multinational enterprises in information technology[J]. Studies in Science of Science, 2024, 42(10):2228-2240.
This study focuses on exploring the dynamic acquisition of organizational legitimacy in multinational corporations through innovation networks based on standard competition and cooperation. A vertical single case study was conducted on Huawei Technology Co., Ltd., a leading enterprise in the new generation of information technology industry, to explore the internal and dynamic mechanisms of obtaining the legitimacy of innovative networks based on standard competition and cooperation. Research has found that, The innovation network model based on standard competition and cooperation constructed by multinational enterprises at different stages of standard internationalization is triggered by the institutional logic of "professional logic, market logic, community logic, and national logic" of the focus legitimacy evaluator, presenting "utilization standard competitive-cooperative innovation network—exploratory standard competitive-cooperative innovation network—dominant standard competitive-cooperative innovation network—autonomous and controllable standard competitive-cooperative innovation network". The utilization standard competitive-cooperative innovation network constructed by Huawei in stages based on standard competition and cooperation, as well as the formed standard tracking capability and network orchestration capability obtained from network resource assessment, are the internal mechanisms for multinational enterprises to dynamically obtain regulatory legitimacy. The exploratory standard competitive-cooperative innovation network based on standard competition and cooperation built by Huawei, as well as the capability to integrate standards, arrange network resources for migration, and lead cooperation, are the internal mechanisms for multinational enterprises to dynamically obtain normative legitimacy. The dominant standard competitive-cooperative innovation network built by Huawei based on standard competition and cooperation and the formed standard dominant capability, network orchestration capability obtained from network innovation resource exclusive, and competition dominant competition and cooperation capability are the internal mechanisms for multinational enterprises to dynamically obtain cognitive legitimacy. The autonomous and controllable standard competitive-cooperative innovation network built by Huawei based on standard competition and cooperation and the formed standard independent and controllable capability, stable network arrangement capability, and balanced competition and cooperation capability are the internal mechanisms for multinational enterprises to dynamically obtain new legitimacy after transition. The core competency level and integration depth formed by innovation networks based on standard competition and cooperation in different modes are dynamic mechanisms that cross legitimacy thresholds. The two low-level core competencies formed during the 1G and 2G periods are dynamic mechanisms for breaking through regulatory legitimacy thresholds in the early stages of standard internationalization. During the 3G era, three types of mid-level core competencies were formed, and the low degree of integration of capabilities was a dynamic mechanism that broke through the threshold of normative legitimacy. The three high-order core competencies formed before 4G and 5G present a dynamic mechanism of moderate integration of capabilities that breaks through the threshold of cognitive legitimacy. The three high-order core competencies formed in the post 5G era exhibit a highly integrated capability, which is a dynamic mechanism for breaking through the new legitimacy threshold after the transition. This study analyzes the process mechanism of multi-stage legitimacy dynamic acquisition and threshold crossing under the background of standard internationalization, providing important insights for the new generation of information technology industry multinational enterprises to use innovation networks based on standard competition and cooperation as legitimacy acquisition strategies.
[6]
戚聿东, 杜博, 叶胜然. 知识产权与技术标准协同驱动数字产业创新:机理与路径[J]. 中国工业经济, 2022(8):5-24.
QI Yudong, DU Bo, YE Shengran. Intellectual property rights and technology standards synergistically drive digital industry innovation: Mechanism and path[J]. China Industrial Economics, 2022(8):5-24.
[7]
王黎萤, 赵春苗, 王举铎, 等. 知识产权与标准协同推进人工智能产业创新机制与路径优化[J]. 科学学与科学技术管理, 2024, 45(4):52-67.
WANG Liying, ZHAO Chunmiao, WANG Juduo, et al. Collaboration of intellectual property rights and standards to promote the optimization of artificial intelligence industry innovation mechanism and path[J]. Science of Science and Management of S.& T., 2024, 45(4):52-67.
[8]
HENKEL J. Licensing standard-essential patents in the IoT:A value chain perspective on the markets for technology[J]. Research Policy, 2022, 51(10):104600.
[9]
DANG J W, KANG B, DING K. International protection of standard essential patents[J]. Technological Forecasting and Social Change, 2019, 139: 75-86.
Technical standards in the mobile communications industry have been developed from national to regional and from regional to global. In the current era, global standards in the industry have enabled the formation of a single global market. However, because standard essential patents (SEPs) are territorial given the nature of the patent system, they can function as an opportunity or a threat depending on whether or not they are protected in countries of interest. This paper investigates how W-CDMA and LTE SEPs are globally distributed. From the analysis, the current study discovers SEP owners' strategies, future opportunities, and threats in their international businesses.
[10]
张学文, 陈劲. 科技自立自强的理论、战略与实践逻辑[J]. 科学学研究, 2021, 39(5):769-770.
ZHANG Xuewen, CHEN Jin. Technology and theory, strategy and practice logic[J]. Studies in Science of Science, 2021, 39(5):769-770.
[11]
陈曦, 韩祺. 新发展格局下的科技自立自强:理论内涵、主要标志与实现路径[J]. 宏观经济研究, 2021(12):95-104+135.
CHEN Xi, HAN Qi. Scientific and technological self-reliance in the new development pattern: Theoretical connotation, main signs and realization path[J]. Macroeconomics, 2021(12):95-104+135.
[12]
雷小苗, 杨名, 李良艳. 科技自立自强与开放创新有机协同:双循环格局下的理论、机制与路径研究[J]. 科学学研究, 2023, 41(5):916-924.12.
摘要
科技自立自强与开放创新辩证统一。“双循环”新发展格局为两者的协同发展提供了新思路和战略载体,对于建设世界科技强国意义重大。从系统论看,国内、国际创新活动具有整体性、关联性、开放性、动态平衡性、1+1>2非加和性等特征。“科学-技术-市场”理论框架中,三个子系统互相衔接、有效联动、协同作用是实现自立与开放协同的基础。“内循环”与“外循环”协同和“自立”与“开放”协同具有内在逻辑的统一性。“双循环”格局下促进自立与开放协同的路径包括:一是合作模式多元化:加强基础研究的国际合作,推动“外循环”下大小循环相结合的多元开放模式。二是内部协作高效化:弥合国内产学研协同创新链“断裂”,提升“内循环”下的科技自立自强。三是内外循环协同化:以内促外,以外提内,科技自立自强与开放创新双轮驱动。
LEI Xiaomiao, YANG Ming, LI Liangyan. Organic synergy between self-reliance and open innovation in science and technology: A study on the theory, mechanism and path under the double cycle pattern[J]. Studies in Science of Science, 2023, 41(5):916-924.
the dialectical unity of scientific and technological self-reliance and open innovation. The new development pattern of "double cycle" provides new ideas and strategic carriers for the coordinated development of the two, which is of great significance for building a world scientific and technological power. The thought of system theory is the theoretical basis of the organic coordination between scientific and technological self-reliance and open innovation under the pattern of "double circulation". The three subsystems of "science technology market" are interconnected, effectively linked and synergetic, which is the theoretical framework of self-reliance and open synergy under the new pattern of "double cycle". The coordination paths of the two include: first, strengthen international cooperation in basic research and promote the diversified open mode of combining large and small cycles under the "external cycle"; Second, efficient internal cooperation: bridge the "fracture" of the domestic industry university research association's co innovation chain and improve the self-reliance of science and technology under the "internal cycle"; Third, the coordination of internal and external circulation: promoting the outside from the inside and promoting the inside from the outside, and the two wheel drive of scientific and technological self-reliance and open innovation.
[13]
阳镇, 贺俊. 科技自立自强:逻辑解构、关键议题与实现路径[J]. 改革, 2023(3):15-31.
YANG Zhen, HE Jun. Science and technology self-reliance: Logical deconstruction, key issues and realization path[J]. Reform, 2023(3):15-31.
[14]
周文康, 费艳颖. 美国科技安全创新政策的新动向:兼论中国科技自立自强战略的新机遇[J]. 科学学研究, 2023, 41(3):454-463.
ZHOU Wenkang, FEI Yanying. The new trend of science and technology security innovation policy in the United States and the new opportunity of China's science and technology self-reliance strategy[J]. Studies in Science of Science, 2023, 41(3):454-463.
[15]
程惠芳, 刘卓然. 新时期中国科技创新的理论来源及时代价值[J]. 浙江大学学报(人文社会科学版), 2024, 54(12):74-80.
CHENG Huifang, LIU Zhuoran. Current theoretical and practical logic of technological innovation in China[J]. Journal of Zhejiang University(Humanities and Social Sciences), 2024, 54(12):74-80.
[16]
HU X H, ZHANG Z C, LV C Y. The impact of technological transformation on basic research results: The moderating effect of intellectual property protection[J]. Journal of Innovation and Knowledge, 2023, 4(8): 100443.
[17]
赵春苗, 王黎萤, 蔡纵, 等. 企业工业互联网标准化与数字创新绩效:基于资源编排的视角[J]. 技术经济, 2024, 43(8):101-113.
ZHAO Chunmiao, WANG Liying, CAI Zong, et al. Enterprise industrial internet standardization and digital innovation performance: Based on the perspective of resource orchestration[J]. Journal of Technology Economics, 2024, 43(8): 101-113.
[18]
BLIND K, RAMEL F, ROCHELL C. The influence of standards and patents on long-term economic growth[J]. Journal of Technology Transfer, 2022, 47(4):1297-1311.
[19]
YAO L, LI J, CHEN K H, et al. Winning the second race of technology standardization: Strategic maneuvers in SEP follow-on innovations[J]. Research Policy, 2024, 53(6): 105023.
[20]
崔维军, 韩硕, 吴杰, 等. 标准与专利协同驱动企业创新:华为的案例研究[J]. 科学学与科学技术管理, 2023, 44(8):112-131.
CUI Weijun, HAN Shuo, WU Jie, et al. Standards and patents synergistically drive enterprise innovation: A case study of Huawei[J]. Science of Science and Management of S.& T., 2023, 44(8):112-131.
[21]
YIN R. Case study research: Design and Methods[M]. New York: Sage Publications, 2019.
[22]
GIOIA D A, CORLEY K G, HAMILTON A L. Seeking qualitative rigor in inductive research: Notes on the Gioia methodology[J]. Organizational Research Methods, 2013, 1:15-31.
[23]
伍勇, 魏泽龙, 孙佩瑜. “卡脖子”技术突破中跟随企业与领先企业的演化博弈研究[J]. 科研管理, 2025, 46(1):123-133.
WU Yong, WEI Zelong, SUN Peiyu. Research on the evolutionary game of follower and leading firms in the breakthrough of “bottleneck” technologies[J]. Science Research Management, 2025, 46(1):123-133.
[24]
CAI R, LU L, GURSOY D. Effect of disruptive customer behaviors on others' overall service experience: An appraisal theory perspective[J]. Tourism Management, 2018, 69:330-344.
[25]
YU R J, DING R, YAO L, et al. Diversified or specialised: Firms' patent portfolio strategies under heterogeneous technology standards[J]. Technology Analysis and Strategic Management, 2023, 1-16.
[26]
MILLER C D, TOH P K. Complementary components and returns from coordination within ecosystems via standard setting[J]. Strategic Management Journal, 2022, 43(3):627-662.
[27]
NIKOLIC I, GALLI N. Patent pools in 5G: The principles for facilitating pool licensing[J]. Telecommunications Policy, 2022, 46(4):102287.

基金

国家社会科学基金重大项目:“技术标准与知识产权协同推进数字产业创新的机理与路径研究”(19ZDA078,2019.12—2024.12)
浙江省科技厅软科学研究计划项目:“科技创新和产业创新深度融合重大问题研究”(2025C15004,2025.1—2025.12)
浙江省高校重大人文社科攻关计划项目:“重大任务牵引的科研创新联合体构建、模式改革与实施路径研究”(2024GH060,2024.12—2025.12)

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