In the context of escalating environmental challenges and the global imperative for sustainable development, green technological innovation (GTI) has emerged as a strategic pathway for firms to reconcile economic growth with ecological responsibility. While existing studies acknowledge the potential of GTI in fostering environmental and economic outcomes, critical gaps persist in understanding how GTI translates into firm-level sustainable development performance (SDP), particularly under the moderating effects of value network dynamics. This study addresses two pivotal questions: (1) Does GTI systematically enhance SDP across firms, especially in heavily polluting industries? (2) How do value network attributes—specifically, resource heterogeneity, resource coupling, and total-benefit structural holes—amplify or constrain this relationship? By integrating value network theory with innovation and sustainability literature, this study provides a nuanced framework to decode the mechanisms through which GTI drives SDP, offering actionable insights for firms navigating the dual pressures of regulatory compliance and market competitiveness.
The study adopts a multi-method approach, combining theoretical modeling with empirical validation. A conceptual framework is developed to delineate the direct effect of GTI on SDP and the moderating roles of three value network dimensions: total-benefit structural holes (network positions balancing information brokerage and mutual benefit), resource heterogeneity (diversity of complementary resources), and resource coupling (synergistic integration of resources). Data collected from 367 Chinese firms in heavily polluting industries (e.g., steel, chemicals, energy) is selected due to their high environmental footprint and regulatory exposure. Firm-level GTI activities are measured using patent data (IPC green technology classifications), R&D expenditure ratios, and internal environmental management audits. SDP is operationalized through a composite index encompassing environmental performance (e.g., emission reduction rates), economic performance (e.g., green product revenue share), and social performance (e.g., stakeholder satisfaction scores). Value network variables are quantified via social network analysis (SNA) of inter-firm collaboration networks, resource inventories, and survey-based assessments of resource integration efficiency. Hierarchical regression analysis and moderated mediation models are employed to test hypotheses, with robustness checks addressing endogeneity and industry heterogeneity.
Firms actively implementing GTI exhibit a 23.7% higher SDP index compared to non-adopters, confirming that GTI serves as a critical driver of sustainability outcomes. This effect is particularly pronounced in industries with stringent environmental regulations. Firms occupying structural holes that prioritize mutual benefit (vs. mere information control) amplify the GTI-SDP link by 18.2%. Such positions enable firms to reconcile conflicting stakeholder interests (e.g., balancing cost-intensive green R&D with shareholder returns). A one-standard-deviation increase in resource diversity (e.g., combining clean energy patents with circular economy expertise) enhances GTI’s impact on SDP by 14.5%, underscoring the combinatorial advantage of heterogeneous knowledge assets. High coupling efficiency (measured as resource integration speed/quality) boosts GTI’s SDP returns by 21.3%, indicating that systemic alignment of technical, financial, and human resources is pivotal for scaling green innovations. Resource heterogeneity and coupling exert stronger effects when mediated by total-benefit structural holes. For instance, firms with both high resource diversity and central network positions achieve 31% faster green product commercialization cycles.
This study extends value network theory by introducing total-benefit structural holes as a novel construct. It bridges the focus on information control in structural hole theory with the emphasis on value co-creation in stakeholder theory. A tripartite moderating framework (structure-resource-synergy) is established to elucidate how network embeddedness and resource orchestration jointly shape GTI outcomes, thereby addressing prior oversights in the innovation literature. The study highlights the need for regionally differentiated GTI incentives. For example, it suggests fostering structural hole brokers in underperforming networks (e.g., Western China) through consortium-building initiatives. It also provides a roadmap for leveraging value networks, such as prioritizing “bridging” partnerships with ESG-aligned stakeholders. This approach enables firms to access heterogeneous resources while mitigating collaboration risks. Additionally, the study identifies SDP-enabling metrics (e.g., resource coupling efficiency scores) that can be used for ESG portfolio optimization.
This study demystifies the “black box” of GTI-driven sustainability transitions, demonstrating that value networks are not mere backdrops but active enablers of green innovation efficacy. For firms in polluting industries, strategic navigation of network structures and resource flows,rather than isolated technological prowess,emerges as the linchpin of sustainable competitiveness. Future studies could explore temporal dynamics, such as how digital platforms reshape value networks in accelerating GTI diffusion.
[1] 解学梅, 朱琪玮. 企业绿色创新实践如何破解“和谐共生”难题[J].管理世界, 2021, 37(1): 128-149.
[2] ASTVEDT T M, BEHMIRI N B, LU L, et al. Does green innovation damage financial performance of oil and gas companies[J].Resources Policy, 2021, 73: 102235.
[3] XIE X M, HUO J G, ZOU H L, et al. Green process innovation, green product innovation, and corporate financial performance: a content analysis method[J].Journal of Business Research, 2019, 101: 697-706.
[4] 杨静, 刘秋华, 施建军. 企业绿色创新战略的价值研究[J].科研管理, 2015, 36(1): 18-25.
[5] 杨东, 柴慧敏. 企业绿色技术创新的驱动因素及其绩效影响研究综述[J].中国人口·资源与环境, 2015, 25(S2): 132-136.
[6] CHEN Y S, LAI S B, WEN C T, et al. The influence of green innovation performance on corporate advantage in Taiwan[J].Journal of Business Ethics, 2006, 67(4): 331-339.
[7] YU W T, RAMANATHAN R, NATH P, et al. Environmental pressures and performance: an analysis of the roles of environmental innovation strategy and marketing capability[J].Technological Forecasting and Social Change, 2017, 117: 160-169.
[8] 汪明月, 李颖明, 王子彤. 技术和市场双重不确定性下企业绿色技术创新及绩效[J].系统管理学报, 2021, 30(2): 353-362.
[9] 赵向琴, 赵超, 陈国进. 绿色技术创新、数字经济发展与经济绿色增长——基于“增长”和“降碳”的视角[J]. 计量经济学报, 2025, 5(1): 81-108.
[10] CHAO Z, FENG L. Does global diversification promote or hinder green innovation? evidence from Chinese multinational corporations[J].Technovation, 2024, 129: 102905.
[11] 王婧怡, 佘金凤, 董双. 基于SVN的重大工程组织安全行为价值网络及驱动路径研究[J].中国管理科学, 2022, 30(5): 275-296.
[12] 盛亚, 范栋梁. 结构洞分类理论及其在创新网络中的应用[J].科学学研究, 2009, 27(9): 1407-1411.
[13] ZHANG C, ZHOU B, TIAN X, et al. Political connections and green innovation: the role of a corporate entrepreneurship strategy in state-owned enterprises[J].Journal of Business Research, 2022, 146: 375-384.
[14] 李健, 余悦. 合作网络结构洞、知识网络凝聚性与探索式创新绩效: 基于我国汽车产业的实证研究[J].南开管理评论,2018, 21(6): 121-130.
[15] GALANT A, CVEK D. The effect of environmental performance investments on financial performance: analysis of croatian companies[J].Central European Business Review, 2021, 10(5): 37-51.
[16] 冯立杰, 李倩倩, 王金凤, 等. 后发企业颠覆式创新实现路径与演进机理研究——基于价值网络重构视角[J].财会通讯, 2022,36(8): 10-16,28.
[17] JIAO H R, DENG H B, HU S M, et al. The power of collaboration: how does green innovation network affect urban green total factor productivity[J].Sustainability, 2025, 17 (2): 17020433.
[18] 杜兴强, 殷敬伟, 张颖, 等. 国际化董事会与企业环境绩效[J].会计研究, 2021, 42(10): 84-96.
[19] 解学梅, 王若怡, 霍佳阁. 政府财政激励下的绿色工艺创新与企业绩效: 基于内容分析法的实证研究[J].管理评论, 2020, 32(5): 109-124.
[20] 连远强, 刘俊伏. 成员异质性、网络耦合性与产业创新网络绩效[J].宏观经济研究, 2017, 39(9): 128-136,163.
[21] 吴晓云, 杨冠华. “双驱动”创新战略对技术创新绩效影响的实证研究——以价值网络为调节效应[J].研究与发展管理, 2019, 31(6): 91-103.
[22] BARFOROUSH N, ETEBARIAN A. Green innovation a strategic resource to attain competitive advantage[J].International Journal of Innovation Science, 2021, 13(5): 645-663.
[23] LIU Y Q, SHAO X Y, TANG M P, et al. Spatio-temporal evolution of green innovation network and its multidimensional proximity analysis: empirical evidence from China[J].Journal of Cleaner Production, 2021, 283: 124649.
[24] MAKEEVA V, GICHOYA J, HAWKINS C M, et al. The application of machine learning to quality improvement through the lens of the radiology value network[J].Journal of the American College of Radiology, 2019, 16(9): 1254-1258.
[25] 孙玉涛, 曲雅婷, 张晨. 发明人网络结构与组织合作网络位置[J].管理学报, 2021, 18(1): 52-59.
[26] 魏龙, 党兴华. 网络闭合、知识基础与创新催化: 动态结构洞的调节[J].管理科学, 2017, 30(3): 83-96.
[27] BA Z C, LIANG Z T. A novel approach to measuring science-technology linkage: from the perspective of knowledge network coupling[J].Journal of Informatics, 2021, 15(3): 101167.
[28] 张倩. 环境规制对绿色技术创新影响的实证研究——基于政策差异化视角的省级面板数据分析[J].工业技术经济, 2015, 34(7): 10-18.
[29] 梁靓. 开放式创新中合作伙伴异质性对创新绩效的影响机制研究[D].杭州:浙江大学, 2014.
[30] 王海花, 谢富纪. 企业外部知识网络能力的结构测量——基于结构洞理论的研究[J].中国工业经济, 2012, 30(7):134-146.
[31] MIOTTI L, SACHWALD F. Co-operative R&D: why and with whom? an integrated framework of analysis[J].Research Policy, 2003, 32(8): 1481-1499.
[32] NIETO M J, SANTAMARA L. The importance of diverse collaborative networks for the novelty of product innovation[J].Technovation, 2007, 27(6): 367-377.
[33] CIVELEK M E, UCA N, EMBERCI M, et al. The effect of trust in supply chain on the firm performance through supply chain collaboration and collaborative advantage[J].Journal of Administrative Sciences, 2017, 15: 215-230.
[34] 周雄勇, 许志端. 数字追溯对食品企业可持续发展绩效的影响——基于动态能力视角[J].经济与管理研究, 2022, 43(8): 129-144.
[35] 李凯杰, 董丹丹, 韩亚峰. 绿色创新的环境绩效研究——基于空间溢出和回弹效应的检验[J].中国软科学, 2020, 35(7): 112-121.