Research on the evaluation of the maturity of industrial technology ecosystems under the synergy of multi-layer networks

Wang Xueyuan, Feng Gui

Science Research Management ›› 2026, Vol. 47 ›› Issue (6) : 66-76.

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Science Research Management ›› 2026, Vol. 47 ›› Issue (6) : 66-76. DOI: 10.19571/j.cnki.1000-2995.2026.06.007  CSTR: 32148.14.kygl.2026.06.007

Research on the evaluation of the maturity of industrial technology ecosystems under the synergy of multi-layer networks

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Abstract

Clarifying the maturity of industrial technology ecosystems is essential for understanding the current state of industries and providing a scientific basis for formulating industrial strategies. However, existing research predominantly focuses on evaluating single-technology synergies or element similarities, often neglecting a systematic examination of multi-layer network synergies. This paper constructed judgment rules for assessing the stage and level of technology ecosystem maturity from two perspectives: mutual promotion-driven synergy and mapping overlap synergy. It proposed a comprehensive evaluation method that integrates hypernetwork models, transfer entropy, and two-mode network mapping relationships. Using patents from the nanomaterials industry between 2013 and 2022 as a foundation, an empirical analysis was conducted to assess the maturity of this industrial technology ecosystem. The results indicated that through normative and quantitative analyses of multi-layer network synergies, it is possible to effectively overcome the subjectivity and one-dimensional limitations inherent in traditional evaluations, thereby providing an objective basis for determining maturity. From the perspective of driving synergy, R&D cooperation along with patent development within the nanomaterials industry significantly propels market applications; however, there exists insufficient reverse driving effects—suggesting that this sector is currently in its formative stage regarding technological systems. In terms of mapping synergy, there is a notable overlap degree (90%) between core technology patents and market application fields; nevertheless, the level of synergy between R&D entities and their market environment remains relatively low overall—resulting in a medium to high maturity level. Based on these findings, strategies such as enhancing the establishment of market-oriented technology consortia are recommended. These strategies will provide valuable decision support for governments and enterprises aiming to optimize their technological ecosystem layouts while bolstering industrial competitiveness.

Key words

technological ecology / maturity / assessment / hyper network model / transfer entropy

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Wang Xueyuan , Feng Gui. Research on the evaluation of the maturity of industrial technology ecosystems under the synergy of multi-layer networks[J]. Science Research Management. 2026, 47(6): 66-76 https://doi.org/10.19571/j.cnki.1000-2995.2026.06.007

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